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WO2022169261A2 - Matériaux ayant une bobine de génération d'énergie quantique imprimée ou fixée sur leurs surfaces, et générateur d'énergie quantique destiné à émettre de l'énergie quantique dans un espace spécifique divisé par des matériaux - Google Patents

Matériaux ayant une bobine de génération d'énergie quantique imprimée ou fixée sur leurs surfaces, et générateur d'énergie quantique destiné à émettre de l'énergie quantique dans un espace spécifique divisé par des matériaux Download PDF

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Publication number
WO2022169261A2
WO2022169261A2 PCT/KR2022/001683 KR2022001683W WO2022169261A2 WO 2022169261 A2 WO2022169261 A2 WO 2022169261A2 KR 2022001683 W KR2022001683 W KR 2022001683W WO 2022169261 A2 WO2022169261 A2 WO 2022169261A2
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Prior art keywords
coil
quantum energy
power supply
energy generating
shape
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Ceased
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PCT/KR2022/001683
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Korean (ko)
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WO2022169261A9 (fr
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김부열
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    • H—ELECTRICITY
    • H01—ELECTRIC ELEMENTS
    • H01F—MAGNETS; INDUCTANCES; TRANSFORMERS; SELECTION OF MATERIALS FOR THEIR MAGNETIC PROPERTIES
    • H01F27/00—Details of transformers or inductances, in general
    • H01F27/28—Coils; Windings; Conductive connections
    • A—HUMAN NECESSITIES
    • A23—FOODS OR FOODSTUFFS; TREATMENT THEREOF, NOT COVERED BY OTHER CLASSES
    • A23B—PRESERVATION OF FOODS, FOODSTUFFS OR NON-ALCOHOLIC BEVERAGES; CHEMICAL RIPENING OF FRUIT OR VEGETABLES
    • A23B2/00—Preservation of foods or foodstuffs, in general
    • A23B2/50—Preservation of foods or foodstuffs, in general by irradiation without heating
    • A—HUMAN NECESSITIES
    • A61—MEDICAL OR VETERINARY SCIENCE; HYGIENE
    • A61N—ELECTROTHERAPY; MAGNETOTHERAPY; RADIATION THERAPY; ULTRASOUND THERAPY
    • A61N2/00—Magnetotherapy
    • A—HUMAN NECESSITIES
    • A61—MEDICAL OR VETERINARY SCIENCE; HYGIENE
    • A61N—ELECTROTHERAPY; MAGNETOTHERAPY; RADIATION THERAPY; ULTRASOUND THERAPY
    • A61N2/00—Magnetotherapy
    • A61N2/02—Magnetotherapy using magnetic fields produced by coils, including single turn loops or electromagnets
    • A—HUMAN NECESSITIES
    • A61—MEDICAL OR VETERINARY SCIENCE; HYGIENE
    • A61N—ELECTROTHERAPY; MAGNETOTHERAPY; RADIATION THERAPY; ULTRASOUND THERAPY
    • A61N5/00—Radiation therapy
    • H—ELECTRICITY
    • H01—ELECTRIC ELEMENTS
    • H01F—MAGNETS; INDUCTANCES; TRANSFORMERS; SELECTION OF MATERIALS FOR THEIR MAGNETIC PROPERTIES
    • H01F27/00—Details of transformers or inductances, in general
    • H01F27/34—Special means for preventing or reducing unwanted electric or magnetic effects, e.g. no-load losses, reactive currents, harmonics, oscillations, leakage fields
    • H—ELECTRICITY
    • H01—ELECTRIC ELEMENTS
    • H01F—MAGNETS; INDUCTANCES; TRANSFORMERS; SELECTION OF MATERIALS FOR THEIR MAGNETIC PROPERTIES
    • H01F41/00—Apparatus or processes specially adapted for manufacturing or assembling magnets, inductances or transformers; Apparatus or processes specially adapted for manufacturing materials characterised by their magnetic properties
    • H01F41/02—Apparatus or processes specially adapted for manufacturing or assembling magnets, inductances or transformers; Apparatus or processes specially adapted for manufacturing materials characterised by their magnetic properties for manufacturing cores, coils, or magnets
    • H01F41/04—Apparatus or processes specially adapted for manufacturing or assembling magnets, inductances or transformers; Apparatus or processes specially adapted for manufacturing materials characterised by their magnetic properties for manufacturing cores, coils, or magnets for manufacturing coils

Definitions

  • the present invention is a solenoid coil on the surface of various materials such as paper attached to 2 or 4 or 6 sides of a wall dividing a specific space or to each side (1,2,3,4,5,6 side) , toroid coil, cusp coil, helm-heltz coil, gradient saddle coil, uniform saddle coil, Maxwell coil. , RF coil, toroidal coil shape, and a combination of these shapes, select any one shape, print and dry the conductive ink in the selected shape to form a quantum energy generating coil, or use a laser-based model picking technique Metal plates such as silver, stainless steel, etc.
  • space or room
  • space is defined as an empty space where there is nothing, a widely spread range physically and psychologically, a place or area or world where any material or object can exist. Usually referred to as indoors.
  • the space is divided into commercial space, residential space, work space, sports facility space, leisure space, medical facility space, educational facility space, etc.
  • Space, storage, medium space such as refrigerator, food container, drug storage container or strain storage container, etc.
  • a cuboid can be classified into various forms such as a complex space or a sphere, and its use is diverse.
  • Air pollution refers to indoor air pollution in various indoor spaces (houses, schools, offices, public buildings, hospitals, livestock, industrial processes, refrigerators, food storage containers (eg Lock & Lock), injection containers, fruit storage containers, packaging containers, inside capsules, etc.)
  • Air pollution refers to air pollution, which is caused by very complex causes, which adversely affect the health of indoor residents, and the disposal of products due to bacterial or microbial infection, deterioration, protein denaturation, etc. It causes other environmental problems, and in the case of livestock breeding facilities, it is emerging as a social problem, causing large losses to livestock farmers due to the collective death of livestock raised by foot-and-mouth disease, bird flu, and geothermal disease.
  • indoor air pollutants include formaldehyde, volatile organic compounds (VOCs), carbon monoxide (CO), carbon dioxide (CO2), fine dust (PM2.5), and microorganisms (microorganism) in the case of offices and residential spaces.
  • VOCs volatile organic compounds
  • CO carbon monoxide
  • CO2 carbon dioxide
  • PM2.5 fine dust
  • microorganisms microorganism
  • Odor substances generated in livestock breeding facilities include ammonia, hydrogen sulfide, methyl mercaptan, methyl sulfide, trimethylamine, acetaldehyde, propionaldehyde, toluene, and xylene.
  • the storage space of food is deteriorated due to deterioration of the storage object or protein denaturation due to fluctuations in moisture and growth of microorganisms, or the value of the product decreases, causing a lot of loss.
  • Various electrical and electronic devices can be installed inside various spaces. When these electrical and electronic devices are used, electromagnetic waves of various frequencies are generated, so that occupants, livestock, and storage items in the space are affected by the electromagnetic waves.
  • radio waves Thanks to the development of electric and electronic industries and information and communication technology in Korea, various wireless communication and broadcasting services using radio waves have become available. And the technology applied by radio waves like this is gradually expanding its development range from the mobile communication field we are in contact with, the medical industry, and furthermore, the aviation and space industry. The use of these radio waves is our Various visual and spatial constraints that exist in life have been resolved.
  • electromagnetic waves are known to be harmful to the human body when exposed for a long time even if the degree of electromagnetic waves is weak.
  • an induced current is generated in the human body, such as Na+, K+, Cl-, etc. present inside and outside the cell membrane. It is known to affect hormone secretion and immune cells by causing an imbalance of various ions of
  • the effect of electromagnetic waves in living spaces is due to the increase in electricity-using devices such as refrigerators, TVs, air conditioners, and large rotating machines (motors) in factories due to the development of science and technology.
  • electricity-using devices such as refrigerators, TVs, air conditioners, and large rotating machines (motors) in factories due to the development of science and technology.
  • millimeter waves with 30-300 GHz and wavelengths of 1-10 mm are generated in various electric and electronic devices including the electromagnetic field in the natural world. Waves have a huge impact on the human body.
  • fungi Pseudomonas aeruginosa, Staphylococcus aureus, pneumococcus, Legionella, and other bacteria and variant viruses (MRSA), MERS-COV, Ebola virus, SARS-COV, bacteria, etc. of floating viruses may spread.
  • MRSA bacteria and variant viruses
  • livestock breeding facilities create a good environment for bacteria, airborne viruses and harmful microorganisms to inhabit in the remaining amount of feed, unsterilized drinking water, and manure, so that avian influenza (AI), foot-and-mouth disease (FMD), swine fever ( ASF), Edwardsiellus Tarda, Streptococcus iniae or vibrio ichtyoenteri, MRSA [methicillin-resistant S. aureus) ], mutant viruses such as MRSE [methicillin-resistant S. epidermidis], Mycobacterium tuberculosis, Mycobacterium avium, drug-resistant P. aeruginosa, enterotoxin producing E. coli, intestinal hemorrhagic E.
  • AI avian influenza
  • FMD foot-and-mouth disease
  • ASF swine fever
  • MRSA methicillin-resistant S. aureus
  • mutant viruses such as MRSE [methicillin-resistant S. epidermidis], Mycobacterium tub
  • coli Klebsiella pneumoniae, Clostridium difficile , Heliobacter pylori, Legionella pneumophila, Enterococcus faecalis, Enterobacter cloacae, Salmonella typhimurium, Proteus vulgarium Proteus vulgaris), Yersinia enterocolitica, Vibrio cholerae, and Shigella Flexneri, mutated virus (MRSA), MERS-COV, Ebola virus , SARS-COV, bacteria, etc. are suspended in the air.
  • Harmful bacteria and airborne viruses floating in the air can infect the air as a medium, and the aquatic bacteria Bacillus, Bacillus ant hracis), food poisoning bacteria (Bacillus Cereus), Bacillus coagulans (Bacillus Coagulans), etc. These viruses build a biofilm and have resistance to disinfectants and disinfectants, so the reliability of sterilization cannot be secured.
  • Quantum energy generating device was devised by Tesla, and one is wound on the right side of two cylinders without an iron core, and the other is left wound. As the magnetic field is created, the two magnetic fields overlap and cancel each other, and the strength of the magnetic field becomes 0 (zero). ) or quantum energy or scalar energy.
  • Mobius called the Tesla Coil winding method the Mobius Coil method of winding two coils in an ⁇ method on a cylinder without a tip, and the quantum energy field generated in the existing Tesla Coil has the same frequency as the incoming current.
  • the generated Mobius Coil allowed the generated quantum energy field to be generated as a set with a harmonic function complemented by amplification, cancellation, and interference at a specific frequency.
  • Tesla After Tesla, a lot of research has been done on the coils of Tesla Coils.
  • the characteristic of the coil of Tesla Coil is that one winding is right-wound and the other is left-winding, and the direction of the current is also made to flow in the opposite direction. known In this way, it was discovered that strange new energy appeared as the magnetic field was canceled.
  • This energy a scalar or non-Hertzian wave.
  • Jennison said that two orthogonal standing waves are observed when calculated using mathematical formulas.
  • the interaction between the two standing waves depends on the winding shape of the coil, and the field is trapped in the cavity. ), and said that Tesla Coi can work like an antenna.
  • Chambers (1960) said that, although direct current was sent to the Tesla Coil to generate quantum energy, it was also possible to generate quantum energy by sending alternating current.
  • Seiki said that an imaginary electric field is found when the resistance loss of a Mobius coil is mathematically calculated.
  • This imaginary energy corresponds to the imaginary part of the electrostatic scalar energy and the imaginary part of the magnetic field in Maxwell's electromagnetic equation.
  • An imaginary electromagnetic field is said to be a quantum energy field. Bearden also called the imaginary electric field scalar energy.
  • the Mobius coil causes the curvature of local space-time, that is, the electromagnetic field destroys symmetry, and high-dimensional energy enters the three-dimensional world. electronics) is called.
  • quantum energy generators are as follows.
  • a device that combines a plasma wave with a frequency generator
  • quantum energy In other words, quantum energy, superquantum energy, scalae energy, and non-Hertzian wave energy are used similarly, so we will just use the same meaning in quantum medicine.
  • Korean Patent Publication No. 10-2081951 synthetic Sterilization Surface with Nanospike Array
  • information on a frequency group at which at least one microorganism responds to electromagnetic wave energy effective for a microbial target is stored, and it is present in various microbial targets or, information about non-existent microorganisms, bacteria, viruses or bacteria is stored, and the information includes biological information about each organ or cell of the target and microorganism, along with electromagnetic wave information about frequencies and frequency bands that affect it
  • a signal oscillator (G) for generating electromagnetic waves in at least one band based on the information transmitted from the microorganism database 20 and the microorganism database 20 to include and store; and transmission from the microorganism database 20
  • the electromagnetic wave generated from the microcomputer (C) and the signal oscillator (G) that controls the overall operation based on the obtained information, and controls the operation of the signal oscillator (G) so that a signal of a specific frequency band is generated as a target
  • An output control device (OC) that adjusts the
  • the technology of Korean Patent Publication No. 10-1483843 (Tinnitus / Hearing Loss Treatment Device Using Electromagnetic Pulse) is a ring coil 11 with a diameter of 4-5 cm, a headband 12, and an earpiece (13) made to be inserted into the ear canal. ) and a power/control unit for supplying PEMF pulse voltage to the ring coil. Wearing it, when the PEMF-type pulse voltage generated from the power supply is supplied to the ring coil attached to the headband through the wire, the pulse-shaped magnetic field pulse generated at a 90 degree angle to the current flow direction of the ring coil is included in the cochlea.
  • This technology which treats hearing loss and hearing loss by promoting the metabolism of aging or degenerated auditory tissue cells by irradiating the inner ear tissue, and helping the regeneration of nerve cells, has no bactericidal function or quantum energy generation function.
  • Korean Patent Publication No. 10-1868856 air purifier with built-in quantum energy generator
  • an outdoor air supply pipe and an outdoor exhaust pipe connected to the outside of the housing and an indoor air supply pipe and an indoor exhaust pipe and an indoor exhaust pipe connected to the other side of the housing.
  • a high voltage discharge unit installed inside of the air supply pipe and a vibration suppression unit that electrically removes fine dust in the incoming external air connected to the outdoor air supply pipe, and a high voltage for applying the electronic energy generated by the high voltage generator connected to the vibration suppression unit
  • the quantum energy generator that irradiates electromagnetic fields and quantum energy in a specific space developed so far is inefficient in terms of efficiency and scalability due to the above-mentioned problems, and has a wide application range while securing economic stability and durability.
  • the technology for generating and irradiating electromagnetic fields and quantum energy has yet to be developed.
  • the technical problem to be achieved by the present invention is to implement a quantum energy generating device that irradiates an electromagnetic field and quantum energy to a specific space, a quantum energy generating device for irradiating an electromagnetic field and quantum energy to 2, 4 or 6 surfaces of an indoor partitioning a specific space
  • the energy generating coil is transferred to the surface of the material, conductive ink is printed on each side (1,2,3,4,5,6 side), or a thin conductive metal plate is processed into a quantum energy generating coil and attached to the surface of the material
  • the material in which a wire made of a conductive or coated conductive metal material is wound in the form of a quantum energy generating coil is a commercially available thin white paper such as Changho paper, Sago paper, Yusam paper, Taemi branch, Sannaeji, Wansanji, Kapyeong paper, Gyeonyang paper, etc.
  • Paper with thick and strong geology such as , small paper, diagonal paper, inner wall paper, etc., which is made of two or more layers of printed paper, Taejang paper, Yeongchang paper, Daejang paper, Nongseonji, Ipmoji, Saefuji, Exterior paper, Hejongjung paper Papers made of papers such as corrugated paper, corrugated paper, etc., colored paper such as yellow paper, red paper, yellow paper, blue paper, dark blue paper, blue paper, etc. 1st material: PVC, PE, PC, acrylic, tempered glass molded foam (FRP), Teflon, urethane, etc.
  • FRP tempered glass molded foam
  • Non-conductive material 2nd material iron (Fe), copper (Cu), zinc (Zn), tin (Sn) ), aluminum (AL), stainless steel (STS304, STS316), hastalloy, a third material that is a metal material such as a panel with insulation or cold insulation attached; general plywood, pine pine plywood, core plywood, larch plywood, MDF, particle board 4th material such as wood plywood; 5th material, which is inorganic material such as concrete, tile, block, brick, board, stone (marble plate, etc.); vegetable fiber, vegetable fiber, mineral fiber, regenerated fiber, synthetic fiber, inorganic fiber 6th material such as; thin plate glass, thick plate glass, transparent abrasive plate glass, sun shielding glass.
  • a seventh material such as blocking glass for blocking X-rays, heat insulation, sound insulation, and preventing condensation; Any one material is selected from among the eight transparent materials such as polyimide, PET (polyethyleneterephthalate), PMMA (polymethyl methacrylate), PDMS (polymethylsiloxane), polyester film, polyethylene film, polypropylene film, and PVC film. the material used and
  • Paper with thick and strong lipids such as thin white paper, small wall paper, diagonal paper, inner wall paper, such as Changho paper, Sago paper, Yusam paper, Taemi basin, Sannaeji, Wansanji, Kapyeongji, Gyeonyangji, etc.
  • Recycled paper such as long-stitched paper, insect repellent paper, etc., which is a slightly thicker paper such as gakji, taejangji, yeongchangji, daejangji, nongseonji, ipmoji, saefuji, exterior paper, hejongjungji, shijiji, etc.
  • a first method of forming a generating coil and
  • any one of the second materials of non-conductive materials such as PVC, PE, PC, acrylic, Bakelite, glass fiber molded foam (FRP), and Teflon, and apply electricity to one or both surfaces of the selected material.
  • Coil toroid coil, cusp coil, helm-heltz coil, gradient saddle coil, uniform saddle coil, toroid coil, trigger coil, zigzag coil (top and bottom, left and right), extension type coil, motor stator type coil, square type Among the shapes of coils, RF coils, toroidal coils, Tesla coils, Mobius coils, Caduceus coils, Rogoski coils, and combinations of these shapes, A second method of forming first and second quantum energy generating coils by selecting any one coil shape, printing, and drying to form a quantum energy generating coil; and
  • any one of the 5 materials such as inorganic materials such as concrete, tile, block, brick, board, stone (marble exterior material, etc.)
  • grinding one surface of the selected material with an electric sander and cleaning
  • any one printing method among flexography, screen printing, offset printing, rotary scriber, inkjet printing, and dry printing method using the conductive ink prepared in advance
  • the solenoid coil, toroid coil, cusp coil, Helmheltz coil, gradient saddle coil, uniform saddle coil, toroid coil, trigger coil, zigzag coil (top and bottom, left and right), extension coil, motor stator shape coil, square coil, RF coil, toroidal coil shape ,Tesla coil, Mobius Coil, Caduceus Coil, Rogoski coil shape, and any one coil shape from a combination of these shapes is selected for printing and printing.
  • Thin plate glass, thick plate glass, transparent polished plate glass, sun shielding glass Select any one of the blocking glass for X-ray blocking, heat insulation, sound insulation, and anti-condensation, remove the fine dust on the surface of the selected material with a vacuum cleaner, and then use a solvent such as ethyl alcohol or isopropyl alcohol to remove impurities on the surface.
  • Conductive ink is applied to one or both surfaces of the following material by selecting any one of the following printing methods: flexography, screen printing, offset printing, rotogver, inkjet printing, and dry printing, and apply a solenoid coil, toroid coil, Cusp coil, Helm-Heltz coil, gradient saddle coil, uniform saddle coil, toroid coil, trigger coil, zigzag coil (top and bottom, left and right), extension coil, motor stator coil, square coil, RF coil, Select any one coil shape among the shapes of toroidal coil, Tesla coil, Mobius coil, Caduceus coil, Rogoski coil, and combinations of these shapes a seventh method of printing and drying to form a quantum energy generating coil; and
  • conductive ink is applied to the surface or both surfaces of the material to be removed, and the solenoid coil, toroid coil, cusp coil, Helm Heltz Coil, Gradient Saddle Coil, Uniform Saddle Coil, Toroid Coil, Trigger Coil, Zigzag Coil (Up and Down, Left & Right), Extension Coil, Motor Stator Coil, Square Coil, RF Coil, Troydal Coil, A shape selected from among a Tesla coil, a Mobius coil, a Caduceus coil, a Rogoski coil shape, and a combination of these shapes, film thickness on the material surface; 4-10 ⁇ m, line width; 50-80 ⁇ m, volume resistivity; the eighth method of printing and drying under the conditions of 4-10 ⁇ cm to form a quantum energy generating coil; and
  • Solenoid coil toroid coil, cusp coil, Helm-Heltz coil, gradient saddle on the surface Coil, uniform saddle coil, toroid coil, trigger coil, zigzag coil (up and down, left and right), extension coil, motor stator coil, square coil, RF coil, toroidal coil, Tesla coil , Mobius Coil, Caduceus Coil, Rogoski coil shape and any one coil shape is selected from a combination of these shapes, and iron (Fe) is selected as the selected shape.
  • Quantum energy generating coil is formed by winding the quantum energy generating coil or winding in the shape of the selected quantum energy generating coil using EL Wire manufactured using an electroluminescence device manufacturing technology. 9b method;
  • a 9c method of forming a quantum energy generating coil to which a quantum energy generating coil is attached
  • a transparent substrate (1), a first electrode ( 2), the electroluminescent layer 3 and the second electrode 4 are formed.
  • the first electrode 2 is formed on the transparent substrate 1 in the form of a quantum energy generating coil-shaped stripe, and the first The organic electroluminescent layer 3 is formed on the electrode 2, and the second electrode 4 is formed in the form of a quantum energy generating coil-shaped stripe on the organic electroluminescent layer 3, wherein the The shape of the quantum energy generating coil formed in the form of a stripe on the first electrode 2 and the second electrode 4 is a solenoid coil, a toroid coil, a cusp coil, a Helm Heltz coil, a gradient saddle coil, and a uniform saddle.
  • Coil toroid coil, trigger coil, zigzag coil (top and bottom, left and right), extension coil, motor stator coil, square coil, RF coil, toroidal coil, Tesla coil, Mobius coil (Mobius Coil), Caduceus Coil (Caduceus Coil), Rogoski coil (Rogoski coil) shape and a combination of these shapes to select any one coil shape, processed into the selected shape, stripe and Insulate between the stripes with an insulating material (not shown), and the winding direction of the quantum energy generating coil is counterclockwise or clockwise. 9d method of becoming;
  • Non-conductive materials such as PVC, PE, PC, acrylic, Bakelite, tempered glass foam (FRP), Teflon, and urethane, iron (Fe), copper (Cu), zinc (Zn), tin (Sn) ), stainless steel (STS304, STS316), aluminum (AL), hastalloy, panel with insulation or cold insulation, titanium (Ti), platinum (Pt), etc., the third material of metal materials, concrete wall, tile, block ,Brick, board, etc. 5th material), thin plate glass, thick plate glass, transparent abrasive plate glass, sun-shielding glass.
  • non-conductive materials such as PVC, PE, PC, acrylic, Bakelite, tempered glass foam (FRP), Teflon, and urethane, iron (Fe), copper (Cu), zinc (Zn), tin (Sn) ), stainless steel (STS304, STS316), aluminum (AL), hastalloy, panel with insulation or cold insulation, titanium (Ti), platinum (Pt), etc.
  • 7th material such as blocking glass for X-ray blocking, heat insulation, and preventing condensation, polyimide, PET (polyethyleneTerephthalate), PMMA (polymethyl methacrylate), PDMS (polymethylsiloxane), polyester film, polyethylene film, polypropylene film, and PVC film
  • the second material which is a non-conductive material such as PVC and PE
  • the third material which is a metal material such as iron (Fe) and copper (Cu)
  • the fifth material which is an inorganic material such as concrete wall, tile, block, brick, board, etc.
  • a cleaning solution such as isopropyl alcohol for the selected material
  • Metal materials such as iron (Fe), copper (Cu), zinc (Zn), tin (Sn), stainless steel (STS304, STS316), aluminum (AL), hastalloy, titanium (Ti), platinum (Pt)
  • the third material is to face the front and back surfaces of the printed coil surface to the outside so that it is in contact with the liquid or to the inside so that it does not contact the liquid, and then connect the conductive wire (not shown) connected to each quantum energy generating coil to the outside After pulling out the edge of the bonding surface, select any one welding method among ARC welding, TIG welding, and MIG welding to weld the edge of the bonding surface.
  • the fifth material which is an inorganic material such as concrete walls, tiles, blocks, bricks, boards, and stones (marble exterior materials, etc.), is polyimide, PET (polyethylene terephthalate), PMMA (polymethyl methacrylate), Attach any one of the eighth materials of transparent materials such as PDMS (polymethylsiloxane), polyester film, polyethylene film, polypropylene film, and PVC film,
  • any one of the non-conductive second materials such as PVC, PE, PC, acrylic, Bakelite, and tempered glass molded foam (FRP) with a quantum energy radiation coil formed on the surface, or iron (Fe), Copper (Cu), Zinc (Zn), Tin (Sn), Stainless Steel (STS304, STS316), Aluminum (AL), Hastalloy, Aluminum (Al), Nickel (Ni), Titanium (Ti), Platinum (Pt) ), etc.
  • FRP tempered glass molded foam
  • PRR built-in repetition rate control
  • Power transmitter and receiver coil power generator, feedback signal generator, power receiver, converter, inverter, and resonant reactor , a pulse transformer, a control unit, a gate driving unit, a first capacitor, and a third power supply for supplying the generated power to the quantum energy generating coil composed of a high voltage generator consisting of a first capacitor, and a second capacitor; and
  • a fourth power supply that is composed of an input unit, a control unit, a switching converter unit, a high voltage generator, and a rectifier and supplies the generated power to the quantum energy generating coil;
  • Power supply consisting of an AC power supply or DC power (DC: battery) supply, AC/DC conversion unit, automatic supply power switch (ATS), low frequency generator and output unit, switching element, PWM (Pulse Width Modulation: Pulse) width modulation) control method, pulse frequency modulation PFM (pulse frequency modulation), pulse frequency (density) control (PDM), and a control unit with built-in pulse repetition rate control (PRR) functions to supply the generated power to the quantum energy generating coil a fifth power supply to; and
  • PWM Pulse Width Modulation: Pulse) width modulation
  • PFM pulse frequency modulation
  • PDM pulse frequency (density) control
  • PRR pulse repetition rate control
  • Power supply part overload detection part, voltage adjustment part, frequency modulation part. Select any one type from among the sixth power supplies composed of the EL driving unit to supply power to the quantum energy generating coil, or a first power supply and a second power supply to the first and second quantum energy generating coils, respectively; A third power supply, a fourth power supply, a fifth power supply, a sixth power supply, and a power supply that is installed with any one selected from the battery (not shown) to supply power.
  • a first quantum energy generating device comprising a power supply from which any one of
  • flexography, screen printing, offset printing, rotogver, inkjet printing, and dry printing method are selected and any one printing method is selected, solenoid nose, toroid coil, cusp coil, Helmheltz coil , gradient saddle coil, uniform saddle coil, toroid coil, trigger coil, zigzag coil (top and bottom, left and right), extension coil, motor stator shape coil, square coil, RF coil, toroidal coil, Tesla coil ( Tesla coil), Mobius coil, Caduceus coil, Rogoski coil shape, and any one coil shape is selected from a combination of these shapes, and the selected coil shape is used.
  • a first power supply, a second power supply, a third power supply, a fourth power supply, a fifth power supply that supplies power to the quantum energy generating coil and the quantum energy generating coil produced by the second method of printing and drying A sixth power supply, a second quantum energy generator consisting of a power supply from which any one of a battery (not shown) is selected; and
  • Solenoid coil, toroid coil, cusp coil, helm-heltz coil by selecting any one printing method among flexography, screen printing, offset printing, web scriber, inkjet printing, and dry printing on the third material and the surface of the third material ,Gradient saddle coil, uniform saddle coil, toroidal coil, trigger coil, zigzag coil (top and bottom, left and right), extension coil, motor stator shape coil, square coil, RF coil, toroidal coil shape, Tesla coil (Tesla coil), Mobius coil (Mobius Coil), Caduceus coil (Caduceus Coil), Rogoski coil (Rogoski coil) shape and a combination of these shapes to select any one coil shape to print and dry
  • the first power supply, the second power supply, the third power supply, the fourth power supply, the fifth power supply, and the sixth power supply supplying power to the quantum energy generating coil and the quantum energy generating coil manufactured by the third method ,
  • a third quantum energy generating device consisting of a power supply from
  • Solenoid coil, toroid coil, cusp coil, Helm Heltz coil by selecting any one printing method among the 4th material and the 4th material surface, flexography, screen printing, offset printing, rotary scriber, inkjet printing, and dry printing ,Gradient saddle coil, uniform saddle coil, toroidal coil, trigger coil, zigzag coil (top and bottom, left and right), extension coil, motor stator coil, square coil, RF coil, toroidal coil, Tesla coil ( Tesla coil), Mobius Coil, Caduceus Coil, Rogoski coil shape, and any one coil shape selected from a combination of these shapes is printed and dried.
  • Flexography, screen printing, offset printing, web grabber, inkjet printing, and dry printing method on the surface of the 5th material and the 5th material are selected to print solenoid coil, toroid coil, cusp coil, Helm Heltz coil ,Gradient saddle coil, uniform saddle coil, toroidal coil, trigger coil, zigzag coil (top and bottom, left and right), extension coil, motor stator shape coil, square coil, RF coil, toroidal coil, Tesla coil ( Tesla coil), Mobius Coil, Caduceus Coil, Rogoski coil shape, and any one coil shape from a combination of these shapes is selected, printed and dried.
  • a fifth quantum energy generating device consisting of a power supply from which any one type of battery (not shown) is selected; and
  • Solenoid coil, toroid coil, cusp coil, helm-heltz coil by selecting any one printing method among 6th material and 6th material surface, flexography, screen printing, offset printing, rotogver, inkjet printing, and dry printing method ,gradient saddle coil, uniform saddle coil, toroidal coil, trigger coil, zigzag coil (top, bottom, left and right), extension coil, motor stator shape coil, square coil, RF coil, toroidal coil, Tesla coil ( Tesla coil), Mobius Coil, Caduceus Coil, Rogoski coil shape, and any one coil shape selected from a combination of these shapes is printed and dried.
  • Solenoid coil, toroid coil, cusp coil, helm-heltz coil by selecting any one printing method among 7th material and 7th material surface, flexography, screen printing, offset printing, rotogver, inkjet printing, and dry printing method ,Gradient saddle coil, uniform saddle coil, toroidal coil, trigger coil, zigzag coil (top and bottom, left and right), extension coil, motor stator shape coil, square coil, RF coil, toroidal coil, Tesla coil ( Tesla coil), Mobius coil, Caduceus coil, Rogoski coil shape, and any one coil shape selected from a combination of these shapes is printed and dried.
  • Solenoid coil, toroid coil, cusp coil, helm-heltz coil by selecting any one printing method among 8th material and 8th material surface on the surface of flexography, screen printing, offset printing, web grabber, inkjet printing, and dry printing.
  • Solenoid coil toroid coil, cusp coil, Helm-Heltz coil, Gradient saddle coil, uniform saddle coil, toroid coil, trigger coil, zigzag coil (top and bottom, left and right), extension coil, motor stator shape coil, square coil, RF coil, toroidal coil, Tesla coil (Tesla) coil), Mobius Coil, Caduceus Coil, Rogoski coil, and a combination of these shapes are selected, and the selected shape is Fe), copper (Cu), zinc (Zn), tin (Sn), stainless steel (STS 304, STS 316), hastaloid, aluminum (Al), titanium (Ti), nickel (Ni), etc.
  • any one of the 1st material, 2nd material, 3rd material, 4th material, 5th material, 6th material, and 7th material is selected, and polyimide, PET (polyethyleneterephthalate) is applied to the surface of the selected material.
  • PMMA polymethyl methacrylate
  • PDMS polymethylsiloxane
  • polyester film polyethylene film, polypropylene film, and PVC film
  • a conductive solution is applied to one or both surfaces of the selected material by inkjet, flexographic, gravure Solenoid coil, toroid coil, cusp coil, Helm Heltz coil, gradient saddle coil, uniform saddle coil, toroid coil, trigger coil, zigzag coil ( Up and down, left and right), extension coil, motor stator coil, square coil, RF coil, toroidal coil, Tesla coil, Mobius coil, Caduceus coil , A Rogoski coil shape and a shape selected from any one coil shape among a combination of these shapes, the thickness of the film on the surface of the surface of the
  • the first power supply, the second power supply, the third power supply, the fourth power supply, the fifth power supply, the sixth power supply, and the battery (not shown) supplying power to the quantum energy generating coil and the quantum energy generating coil
  • a 9c quantum energy generator consisting of a power supply from which any one type is selected.
  • a first electrode is formed in the form of a stripe in the form of a quantum energy generating coil on a transparent substrate, an organic electroluminescent layer is formed on the first electrode, and a second electrode is formed on the organic electroluminescent layer.
  • the quantum energy generating coil has a structure formed in the form of a stripe, and the quantum energy generating coil formed in the form of a stripe on the first electrode and the second electrode is a solenoid coil, a toroid coil, Cusp Coil, Helm Heltz Coil, Gradient Saddle Coil, Uniform Saddle Coil, Toroid Coil, Trigger Coil, Zigzag Coil (Up & Down, Left & Right), Extension Coil, Motor Stator Coil, Square Coil, RF Coil, Select any one coil shape from the shape of toroidal coil, Tesla coil, Mobius coil, Caduceus coil, Rogoski coil, and combinations of these shapes And, the winding direction of the selected quantum energy generating coil is counterclockwise or clockwise, the quantum energy generating coil is manufactured, and the manufactured quantum energy generating coil is attached by the method 9d to form the quantum energy generating coil.
  • the first power supply, the second power supply, the third power supply, the fourth power supply, the fifth power supply, the sixth power supply, and the battery (not shown) supplying power to the quantum energy generating coil and the quantum energy generating coil
  • a 9d quantum energy generator consisting of a power supply from which any one type is selected, and
  • any one of the 1st material, 2nd material, 3rd material, 4th material, 5th material, 6th material, 7th material, 8th material is selected, Flexography, screen printing on the surface of the selected material .
  • first, second quantum energy generating coil (first, second quantum energy generating coil) is formed, the first space is partitioned using a plurality of materials in which the quantum energy generating coil is formed, and the second space with reduced volume by separating the first space from the first space by a certain distance
  • the two materials are surfaced on the side where the quantum energy generating coil is not formed, and the edge of the interviewed edge is made by using any type of welding machine among ARC welding machine, TIG welding machine, MIG welding machine, and PVC welding machine.
  • the composition is made using a material formed with a quantum energy generating coil that is sealed by welding or bonded with an adhesive or a sealant, power is supplied to each quantum energy generating coil formed on the surface of the material dividing the first space and the second space.
  • 9e quantum consisting of a power supply selected from among a first power supply, a second power supply, a third power supply, a fourth power supply, a fifth power supply, a sixth power supply, and a battery (not shown).
  • a first quantum energy generator consisting of an energy generating device;
  • a high voltage power supply for applying a high voltage to the anode, the first anode, and a second anode made of a material such as rhodium are installed in an opening with a predetermined area on one side of the lower side of the sealed glass tube, and a DC high voltage power supply is applied to the second anode
  • a power supply that supplies a quantum energy dissipation layer of a non-radiative material made of a material such as beryllium is installed on the external exposed surface of the second anode, and power is supplied to the cathode through a power supply,
  • the first anode Connect the lead connected to the first anode to the + terminal of the output side of the power supply for
  • the first anode is installed in the center of the left side surface of the inside of the sealing glass tube
  • the X-ray target plate is installed in the center of the right inclined surface of the first anode
  • the X-ray target plate is installed on the inclined surface of the first anode.
  • An anode is installed, and a quantum energy dissipation layer of a non-radiative material is installed on the second anode surface by interfacing.
  • a first power supply that is spaced apart from the left side of the sealing glass tube by a predetermined distance to apply a high voltage to the cathode and the first anode through a conducting wire is installed, and a second power supply that supplies power to the gate electrode at intervals in the downward direction is installed, a bias circuit between the first power supply and the second power supply air is configured by a common wiring -terminal of the output side of the first power supply and the second power supply air, and the second power supply and the second power supply are spaced in a downward direction
  • a third power supply for applying a high voltage to the anode is installed, and a second brake configured to configure a bias circuit between the second power supply and the third power supply by common wiring the -terminal of the output side of the second power supply and the third power supply.
  • a second quantum energy generator consisting of a 2-2 quantum energy generator of radiation type is manufactured,
  • the first and second quantum energy generating coils of the first and second quantum energy generating devices are spaced apart from each other by a predetermined distance in two sides (left, right or front, rear, top, bottom) facing each other, or
  • a quantum energy generating coil of a conductive metal material that is printed in the form of a quantum energy generating coil or processed into a quantum energy generating coil is attached to the surface of the material on 4 or 6 sides, or an adhesive on the surface of the material After coating, the quantum energy generating coil is formed by winding it in the shape of a quantum energy generating coil with a covered conductive metal wire.
  • the first power supply, the second power supply, the third power supply, the fourth power supply, the fifth power supply, and the sixth power supply installed on one side of the surface of the material, spaced apart by a certain distance, or installed on the outside side (not shown) , Any one of the batteries (not shown) is selected, and the pulse-type power generated from the selected power supply or DC power output from the battery is applied to the first and second quantum energy generating coils through a conducting wire (not shown).
  • the first and second quantum energy generating coils installed so that the winding directions of the coil are opposite to each other, pulsed electromagnetic fields generated at an angle of 90 degrees to the current flow direction are generated in opposite directions to each other, and the first and second quantum energy generating coils are generated in opposite directions.
  • a quantum energy generating device for irradiating an electromagnetic field and quantum energy to a material on which a quantum energy generating coil according to the present invention is printed or attached or wound on the surface and a specific space partitioned by these materials,
  • Paper with thick and strong lipids such as thin white paper, small wall paper, diagonal paper, inner wall paper, such as Changho paper, Sago paper, Yusam paper, Taemi basin, Sannaeji, Wansanji, Kapyeongji, Gyeonyangji, etc.
  • Recycled paper such as long-stitched paper and insect repellent paper with a slightly thicker thickness such as double-stitched paper, taejangji, yeongchangji, daejangji, nongseonji, ipmoji, saefuji, exterior paper, hejongjungji, shibji, etc.
  • the second material 120 which is a non-conductive material such as PVC, PE, PC, acrylic, Bakelite, tempered glass molding foam (FRP), Teflon, and urethane; and
  • the third material 130 which is a metal material such as nickel (Ni), platinum (Pt); and
  • the fourth material 140 such as general plywood, pine plywood, core plywood, larch plywood, MDF, particle board, etc. wood plywood; and
  • the fifth material 150 which is an inorganic material such as concrete, tile, block, brick, board, stone (marble exterior material, etc.);
  • a sixth material 160 such as vegetable fiber, mineral fiber, regenerated fiber, synthetic fiber, inorganic fiber.
  • the seventh material 170 such as thin plate glass, thick plate glass, transparent abrasive plate glass, sun shielding glass.
  • any one of the eighth material 180 of a transparent material such as polyimide, PET (polyethyleneterephthalate), PMMA (polymethyl methacrylate), PDMS (polymethylsiloxane), polyester film, polyethylene film, polypropylene film, PVC film, etc.
  • the material 100 is selected and used; and
  • Paper with thick and strong lipids such as thin white paper, small wall paper, diagonal paper, inner wall paper, such as shangho paper, sago paper, yusam paper, taemi basin, sannaeji, wansanji, kapyeongji, gyeonyangji, etc.
  • Recycled paper such as long-stitched paper, insect repellent paper, etc., which is a slightly thicker paper such as gakji, taejangji, yeongchangji, daejangji, nongseonji, ipmoji, saefuji, exterior paper, hejongjungji, shijiji, etc.
  • Flexography screen printing, offset printing of conductive ink on the surface of the first material selected from among colored paper such as mixed paper, jade paper, red paper, yellow paper, blue paper, dark blue paper, sub-blue paper, corrugated paper, etc.
  • colored paper such as mixed paper, jade paper, red paper, yellow paper, blue paper, dark blue paper, sub-blue paper, corrugated paper, etc.
  • Coil, zigzag coil (top and bottom, left and right), extension coil, motor stator shape coil, square coil, RF coil, toroidal coil, Tesla coil, Mobius coil K Use Select any one coil shape from the shapes of Caduceus Coil, Rogoski coil, and combinations of these shapes, print and dry it to generate quantum energy (first and second quantum energy generating coil)
  • a first method 210 to form a and
  • the second materials of non-conductive materials such as PVC, PE, PC, acrylic, Bakelite, glass fiber molded foam (FRP), Teflon, and urethane, and apply one or both surfaces of the selected material.
  • the conductive ink prepared in advance is selected from among flexography, screen printing, offset printing, web grabber, inkjet printing, and dry printing to select the second material.
  • a second method 220 for forming a quantum energy generating coil (first, second quantum energy generating coil) by selecting any one coil shape from among the formed shapes, printing and drying; and
  • any one of the third materials such as metal materials such as titanium (Ti), nickel (Ni), platinum (Pt), grind one surface of the selected material with an electric sander, clean it with a cleaning agent, Select any one printing method among flexography, screen printing, offset printing, rotary scriber, inkjet printing, and dry printing methods to apply the conductive ink prepared in , gradient saddle coil, uniform saddle coil, toroid coil, trigger coil, zigzag coil (top and bottom, left and right), extension coil, motor stator shape coil, square coil, RF coil, toroidal coil, Tesla coil ( Tesla coil), Mobius Coil, Caduceus Coil, (Caduceus Coil), Rogoski coil (Rogoski coil) shape, and any one coil shape from a combination of these shapes is selected, printed and dried, both A
  • any one of the 5 materials such as inorganic materials such as concrete wall or structure, tile, block, brick, board, stone (marble exterior, etc.) After washing, apply varnish and dry it, or apply the prepared conductive ink on the surface to which the primer is applied in flexography, screen printing, offset printing, web grabber, inkjet printing, any of the dry printing methods.
  • any one of the 6 materials such as vegetable fiber, vegetable fiber, mineral fiber, regenerated fiber, synthetic fiber, and inorganic fiber, and apply a conductive solution to the surface of the selected material by flexography, screen printing, offset printing, web rotation
  • Shaped coil top and bottom, left and right
  • extension type coil motor stator type coil, square coil, RF coil, Troidal coil, Tesla coil, Mobius coil, Caduceus coil (Caduceus Coil), Rogoski coil, and a method of printing and drying a quantum energy generating coil on the material by selecting any one coil shape from among the shapes and combinations of these shapes and printing and drying the quantum energy generating coil.
  • a sixth method 260 of forming first and second quantum energy generating coils).
  • any one of the thin plate glass, thick plate glass, transparent abrasive plate glass, sun shielding glass and blocking glass remove fine dust from the selected material surface with a vacuum cleaner, and then use a solvent such as ethyl alcohol or isopropyl alcohol to surface
  • a solvent such as ethyl alcohol or isopropyl alcohol
  • conductive ink is applied to one or both surfaces of the material by flexography, screen printing, offset printing, web grabber, inkjet printing, and dry printing by selecting any one printing method to apply a solenoid coil to the surface of the material.
  • the conductive solution is applied to the surface or both surfaces of the material to be removed, and the solenoid coil, toroid coil, cusp coil, Helm Heltz Coil, Gradient Saddle Coil, Uniform Saddle Coil, Toroid Coil, Trigger Coil, Zigzag Coil (Up and Down, Left & Right), Extension Coil, Motor Stator Coil, Square Coil, RF Coil, Troydal Coil, A shape selected from among a Tesla coil, a Mobius coil, a Caduceus coil, a Rogoski coil shape, and a combination of these shapes, film thickness on the material surface; Eighth method (280) of forming quantum energy generating coils (first and second quantum energy generating coils) by printing and drying under conditions of 4-10 ⁇ m, line width; 50-80 ⁇ m, volume resistivity; 4-10 ⁇ *cm ;class
  • Solenoid coil toroid coil, cusp coil, Helmheltz coil, gradient saddle on the surface Coil, uniform saddle coil, toroid coil, trigger coil, zigzag coil (top and bottom, left and right), extension coil, motor stator coil, square coil, RF coil, toroidal coil shape, Tesla coil ), Mobius Coil, Caduceus Coil, Rogoski coil shape, and any one coil shape is selected from a combination of these shapes, and iron (Fe) is the selected shape.
  • any one of the 1st material, 2nd material, 3rd material, 4th material, 5th material, 6th material, and 7th material is selected, and polyimide, PET (polyethyleneterephthalate) is applied to the surface of the selected material.
  • PMMA polymethyl methacrylate
  • PDMS polymethylsiloxane
  • polyester film polyethylene film, polypropylene film, and PVC film are selected from among Solenoid coil, toroid coil, cusp coil, helm-heltz coil, gradient saddle coil, uniform inputted to the control unit (micom) of the printing machine using inkjet, flexographic, and gravure offset printing methods with a conductive solution on one or both surfaces
  • the first electrode 2 is formed in the form of a stripe in the form of a quantum energy generating coil on the transparent substrate 1
  • the organic electroluminescent layer 3 is formed on the first electrode 2
  • the second electrode 4 is formed in the form of a stripe in the form of a quantum energy generating coil
  • the first electrode 2 and the second electrode 4 are in the form of a stripe.
  • the shape of the quantum energy generating coil formed by Shape coil, shape coil for motor stator, square coil, RF coil, toroidal coil shape, (Tesla coil), Mobius coil, Caduceus coil, Rogoski coil ) and a combination of these shapes, select any one coil shape, process it into the selected shape, and insulate between the stripe and the strip with an insulating material (not shown), and the winding direction of the quantum energy generating coil is Quantum energy generating coils (first, second 2) a 9d method (290d) of forming a quantum energy generating coil; and
  • Non-conductive materials such as PVC, PE, PC, acrylic, Bakelite, tempered glass molded foam (FRP), Teflon, and urethane, the second material 120, iron (Fe), copper (Cu), zinc (Zn), Tin (Sn), stainless steel (STS304, STS316), aluminum (AL), hastalloy, panel with insulation or insulation attached, aluminum (Al), titanium (Ti), nickel (Ni), platinum (Pt), etc.
  • the third material 130 which is a metallic material
  • the fifth material 150 which is an inorganic material such as concrete wall, tile, block, brick, board, stone (marble exterior material, etc.), thin plate glass, thick plate glass, transparent abrasive plate glass, sun shield glass.
  • the seventh material 170 such as blocking glass for X-ray blocking, heat insulation, and anti-condensation, polyimide, PET (polyethyleneterephthalate), PMMA (polymethyl methacrylate), PDMS (polymethylsiloxane), polyester film, polyethylene film, polypropylene
  • any one of the eighth materials 180 of transparent materials such as films and PVC films,
  • the second material 120 which is a non-conductive material such as PVC, PE
  • the third material 130 which is a metal material such as iron (Fe), copper (Cu), aluminum (Al), titanium (Ti), nickel (Ni), etc. ), concrete walls, tiles, blocks, bricks, boards, etc.
  • the selected material from the fifth material 150 which is an inorganic material, uses an electric sander to grind the part where the quantum energy generating coil will be formed and remove the dust using a vacuum cleaner. After removal, any one selected from the seventh material 170 such as thick plate glass and the eighth material 180 such as polyimide is used with a cleaning solution such as isopropyl alcohol to form a quantum energy generating coil.
  • any one printing method among flexography, screen printing, offset printing, web grabber, inkjet printing, and dry printing, and apply the solenoid coil, toroid coil, cusp coil, helm to the material surface Heltz coil, gradient saddle coil, uniform saddle coil, toroid coil, trigger coil, zigzag coil (top and bottom, left and right), extension coil, motor stator shape coil, square coil, RF coil, toroidal coil, ( Tesla coil), Mobius coil, Caduceus coil, Rogoski coil shape, and any one coil shape selected from a combination of these shapes, and manufactured in advance After the conductive ink is printed and dried in a pre-selected form of a quantum energy generating coil using a printing machine,
  • the third material 130 has the front and back surfaces of the printed coil face outward so that it is in contact with the liquid or inward so that it does not come into contact with the liquid. After taking out the outside (protruding from the bonding surface), select any one welding method among ARC welding, TIG welding, and MIG welding for the edge of the bonding surface to weld the edge of the bonding surface.
  • the fifth material 150 which is an inorganic material such as concrete walls, tiles, blocks, bricks, and boards, is
  • Eighth transparent material such as polyimide, PET (polyethyleneterephthalate), PMMA (polymethyl methacrylate), PDMS (polymethylsiloxane), polyester film, polyethylene film, polypropylene film, PVC film, etc. Attach any one of the materials 180, or
  • the second material 120 which is a non-conductive material such as PVC, PE, PC, acrylic, Bakelite, tempered glass molded foam (FRP), Teflon, and urethane with a quantum energy radiation coil formed on the surface or iron (Fe), copper (Cu), zinc (Zn), tin (Sn), stainless steel (STS304, STS316), aluminum (Al), titanium (Ti), nickel (Ni), hastalloy, etc.
  • the third material 130 which is a metallic material, selects any one shape among the shapes of the quantum energy generating coil, and attaches the quantum energy generating coil processed by the model picking technique using the laser technology to the selected shape.
  • Quantum energy generating coil forming method 200 in which any one forming method is selected according to the type of material from among (290e); and
  • a first power supply 310 for supplying power to the quantum energy generating coil through a conducting wire (not shown); and
  • Step-down (step-up) transformer 321, rectifier circuit 322, input module 323a, arithmetic module 323b, and PWM (pulse width modulation) control method and pulse frequency modulation PFM (pulse frequency modulation) And pulse frequency (density) control (PDM), pulse repetition rate control (PRR) is composed of a control module 323c with built-in control unit 323, current detection sensor 324, magnetic field detection sensor 325 is composed and generated a second power supply 320 for supplying the obtained power to the quantum energy generating coil through a conducting wire (not shown); and
  • Power transmitter 330 consisting of a power supply unit 331, an output power generation unit 332, a frequency modulation unit 333, an output time adjustment unit 334, and a transmission coil unit 335;
  • a power receiver 330a consisting of a receiving coil unit 331a, a power generating unit 332a, and a feedback signal generating unit 333a;
  • Converter unit 331b inverter unit 332b, resonance reactor 333b, pulse transformer 334b, control unit 335b, gate driver 336b, magnetic field detection sensor 336b-1, first condenser 337b ), and a third power supply 330 for supplying the generated power to the quantum energy generating coil composed of a high voltage generating unit 330b composed of a second condenser 338 and b; and
  • a fourth power supply 340 comprising an input unit 341, a control unit 342, a magnetic field detection sensor 342a, a switching converter 343, a high voltage generator 344, and a rectifying unit 345; and
  • Power supply (351), AC/DC converter (352), automatic supply power switch (353) (ATS), low frequency Generation and output unit 354, switching element 355, surface temperature of quantum energy generating coil, PWM (Pulse width modulation) control method and pulse frequency modulation PFM (pulse frequency modulation) and pulse frequency (density) Control (PDM), pulse repetition rate control (PRR), a control unit 356 with built-in functions, and a magnetic field detection sensor 356a, a fifth power supplying the generated power to the quantum energy generating coil through a conducting wire (not shown) feeder 350; and
  • a first power supply 310 is selected from among the sixth power supplies 360 composed of 365 to supply power to the quantum energy generating coil, or to each of the first quantum energy generating coil and the second quantum energy generating coil. ), the second power supply 320, the third power supply 330, the fourth power supply 340, the fifth power supply 350, the sixth power supply 360, any one of the battery (not shown)
  • a power supply 300 that is selected and installed to supply power and
  • the first material 110 and the conductive ink on the surface of the first material 110 are flexographic, screen printing, offset printing, web grabber, inkjet printing, and any one printing method selected among dry printing methods, solenoid coil, toroid Coil, cusp coil, helm-heltz coil, gradient saddle coil, uniform saddle coil, toroid coil, trigger coil, zigzag coil (up and down, left and right), extension coil, motor stator coil, flat coil, RF Select any one coil shape among coil, toroidal coil shape, Tesla coil, Mobius coil, Caduceus coil, Rogoski coil shape, and combinations of these shapes
  • Conductive ink on the surface of the second material 120 and the second material 120 is selected from among flexography, screen printing, offset printing, web grabber, inkjet printing, and dry printing, solenoid coil, toroid Coil, cusp coil, helm-heltz coil, gradient saddle coil, uniform saddle coil, toroid coil, trigger coil, zigzag coil (up and down, left and right), extension coil, motor stator coil, flat coil, RF Coil, Troidal coil, Tesla coil), Mobius coil, Caduceus coil, Rogoski coil shape shape, and any one coil shape is selected from a combination of these shapes
  • Conductive ink on the surface of the third material 130 and the third material 130 is selected from among flexography, screen printing, offset printing, web grabber, inkjet printing, and dry printing, solenoid coil, toroid Coil, cusp coil, helm-heltz coil, gradient saddle coil, uniform saddle coil, toroid coil, trigger coil, zigzag coil (top and bottom, left and right), extension coil, motor stator coil, flat coil, RF Select any one coil shape among coil, toroidal coil, (Tesla coil), Mobius coil, Caduceus coil, Rogoski coil shape, and combinations of these shapes
  • Conductive ink on the surface of the fourth material 140 and the fourth material 140 is selected from among flexography, screen printing, offset printing, web grabber, inkjet printing, and dry printing, and a cusp coil, Helm Heltz Coil, Gradient Saddle Coil, Uniform Saddle Coil, Toroid Coil, Trigger Coil, Zigzag Coil (Up & Down, Left & Right), Extension Coil, Motor Stator Coil, Square Coil, RF Coil, Troydal Coil, (Tesla coil), Mobius coil (Mobius coil), Caduceus coil (Caduceus coil), Rogoski coil (Rogoski coil) shape, and any one coil shape selected from a combination of these shapes is printed and dried.
  • a cusp coil Helm Heltz Coil, Gradient Saddle Coil, Uniform Saddle Coil, Toroid Coil, Trigger Coil, Zigzag Coil (Up & Down, Left & Right), Extension Coil, Motor Stator Coil, Square Co
  • a fourth quantum energy generator 374 consisting of a power supply 300 selected from among a supply 340, a fifth power supply 350, a sixth power supply 360, and a battery (not shown);
  • Shaped coil top and bottom, left and right
  • extension type coil motor stator type coil, square coil, RF coil, toroidal coil, (Tesla coil), Mobius coil, Caduceus coil Coil), a Rogoski coil shape, and a quantum energy generating coil and a quantum energy generating coil manufactured by the fifth method 250 of selecting any one coil shape from among the shapes and combinations of these shapes and printing and drying.
  • the first power supply 310 for supplying power, the second power supply 320, the third power supply 330, the fourth power supply 340, the fifth power supply 350, the sixth power supply 360 ), a fifth quantum energy generating device 375 consisting of a power supply 300 from which any one type of battery (not shown) is selected; and
  • Conductive ink on the surface of the 6th material 160 and the 6th material 160 is selected from among flexography, screen printing, offset printing, web grabber, inkjet printing, and dry printing, solenoid coil, toroid Coil, cusp coil, helm-heltz coil, gradient saddle coil, uniform saddle coil, toroid coil, trigger coil, zigzag coil (up and down, left and right), extension coil, motor stator coil, flat coil, RF Select any one coil shape from among coil, toroidal coil, (Tesla coil), Mobius coil, Caduceus coil, Rogoski coil shapes, and combinations of these shapes
  • Conductive ink on the surface of the seventh material 170 and the seventh material 170 is selected from among flexography, screen printing, offset printing, web grabber, inkjet printing, and dry printing, solenoid coil, toroid Coil, cusp coil, Helmheltz coil, gradient saddle coil, uniform saddle coil, toroid coil, trigger coil, zigzag coil (top and bottom, left and right), extension coil, motor stator coil, flat coil, RF Select any one coil shape from the shapes of coil, toroidal coil, (Tesla coil), Mobius coil, Caduceus coil, Rogoski coil, and combinations of these shapes
  • Conductive ink on the surface of the 8th material 180 and the 8th material 180 is selected from among flexography, screen printing, offset printing, web grabber, inkjet printing, and dry printing, solenoid coil, toroid Coil, cusp coil, helm-heltz coil, gradient saddle coil, uniform saddle coil, toroid coil, trigger coil, zigzag coil (up and down, left and right), extension coil, motor stator coil, flat coil, RF Select any one coil shape from the shapes of coil, toroidal coil, (Tesla coil), Mobius coil, Caduceus coil, Rogoski coil, and combinations of these shapes
  • the first material 110, the second material 120, the third material 130, the fourth material 140, the fifth material 150, the sixth material 160, the seventh material 170, the third material 8 Solenoid coil, toroid coil, cusp coil, helm-heltz coil, gradient saddle coil, uniform saddle coil, toroid coil, trigger coil, zigzag coil (top and bottom, left and right), extension type with adhesive on the surface of the material (180) Coil for motor stator type coil, square coil, RF coil, toroidal coil, Tesla coil, Mobius coil, Caduceus coil, Rogoski coil ) and a combination of these shapes, select any one coil shape, and select iron (Fe), copper (Cu), zinc (Zn), tin (Sn), stainless steel (STS304, STS316), Quantum energy produced by the ninth method (290a) in which any one of aluminum (AL) and hastaloid materials is selected, and the selected material is attached to a plate processed into a selected coil shape from among the coils using a laser.
  • A
  • any one of the 1st material, 2nd material, 3rd material, 4th material, 5th material, 6th material, and 7th material is selected, and polyimide, PET (polyethyleneterephthalate) is applied to the surface of the selected material.
  • PMMA polymethyl methacrylate
  • PDMS polymethylsiloxane
  • polyester film polyethylene film, polypropylene film, or PVC film is selected Solenoid coil, toroid coil, cusp coil, Helm Heltz coil, gradient saddle coil, uniform saddle coil, toroid coil, trigger coil, zigzag coil ( Up and down, left and right), extension coil, motor stator coil, flat coil, RF coil, toroidal coil, Tesla coil, Mobius coil, Caduceus coil , a Rogoski coil shape and a shape selected from any one coil shape from a combination of these shapes, the thickness of the film on the surface of the material; 4-10 ⁇ m, line width; 50-80 ⁇ m, volume resistivity; 9c, to which the
  • the transparent substrate 1 the 1st electrode ( 2), an electroluminescent layer 3, and a second electrode 4.
  • a first electrode 2 is formed on a transparent substrate 1 in the form of a quantum energy generating coil-shaped stripe, and the first
  • the organic electroluminescent layer 3 is formed on the electrode 2
  • the second electrode 4 is formed on the organic electroluminescent layer 3 in the form of a quantum energy generating coil-shaped stripe.
  • the shape of the quantum energy generating coil formed in the form of a stripe on the first electrode 2 and the second electrode 4 is a solenoid coil, a toroid coil, a cusp coil, a Helm-Heltz coil, a gradient saddle coil, and a uniform saddle.
  • Coil toroid coil, trigger coil, zigzag coil (top and bottom, left and right), extension coil, motor stator coil, flat coil, RF coil, toroidal coil, Tesla coil, Mobius coil (Mobius Coil), Caduceus Coil (Caduceus Coil), Rogoski coil (Rogoski coil) shape, and any one coil shape is selected from a combination of these shapes, the first electrode (2) and The second electrode 4 is manufactured, and the winding direction of the manufactured first electrode 2 and the second electrode 4 is counterclockwise or clockwise, and the manufactured quantum energy generating coil is attached to the surface of the selected material.
  • Helm-Heltz coil gradient saddle coil, uniform saddle coil, toroid coil, trigger coil, zigzag coil (top and bottom, left and right), extension coil, motor stator shape coil, square coil, RF coil, toroidal coil, Select any one coil shape from among Tesla coil, Mobius coil, Caduceus coil, Rogoski coil shape and a combination of these shapes,
  • the prepared conductive ink is printed and dried in the shape of a selected quantum energy generating coil using a printing machine to form a quantum energy generating coil (first and second quantum energy generating coil), and using a plurality of materials in which the quantum energy generating coil is formed.
  • the first space is partitioned, and a second space with reduced volume is created by separating the first space by a certain distance.
  • the edge of the finished edge is welded and sealed by any type of welding machine among ARC welding, TIG welding, MIG welding, and PVC welding, or formed using a material formed with a quantum energy generating coil bonded with an adhesive or a sealant.
  • 9e quantum energy generating device ( 379e) consisting of a first quantum energy generator (300A); and
  • a sealed glass tube 401, a thermal electron emitting cathode 404 having a filament installed on the left side of the glass tube, a power supply 402 for supplying DC power to the cathode 404, and the cathode 404 are spaced apart by a certain distance
  • the first anode 413 made of copper (CU) or tungsten (W), a high voltage power supply 311 for applying a high voltage to the first anode 413 , and a predetermined area on one side of the lower side of the sealed glass tube 301 .
  • a second anode 423 made of a material such as rhodium is installed in an opening opened by A quantum energy emitting layer 424 made of a material such as beryllium is installed on the external exposed surface, and power is supplied to the cathode 404 through a power supply 402, and the first anode power supply 411 Connect the lead wire 412 connected to the first anode 413 to the + terminal on the output side of the A 2-1 quantum energy generator 400A of the first braking radiation type constituting a bias circuit between the power supply 411 and the first anode power supply 411; and
  • the gate electrode 443 is installed in a shape that embraces the gate electrode 443, and the first anode 435 is installed at the center of the inner side of the sealing glass tube 437 opposite to the gate electrode 443, and the first anode 435 Installed on the X-ray target plate 436 at the center of the right slope of the second anode ( 453) is installed, and a quantum energy dissipation layer 454 is installed by interfacing on the surface of the second anode 453, and the cathode 433 and the first anode 435 are spaced apart from the left side of the sealing glass tube by a predetermined distance.
  • a first power supply 431 for applying a high voltage through a conducting wire is installed, and a second power supply 441 for supplying power to the gate electrode 443 at intervals in the downward direction is installed,
  • the first power supply A bias circuit between the first power supply 431 and the second power supply air 441 is configured by common wiring the -terminal on the output side of the supply 431 and the second power supply air 441.
  • the second power supply 441 and a third power supply 451 for applying a high voltage to the second anode 453 at an interval in the downward direction is installed, and the output side of the second power supply 441 and the third power supply 451 -terminal is common
  • a second quantum energy generating device ( 400B) A second quantum energy generating device
  • the quantum energy generating device for irradiating an electromagnetic field and quantum energy to a material on which a quantum energy generating coil according to the present invention is printed or attached to the surface and a specific space divided by these materials conducts quantum energy generating coils of various shapes on the surface of various materials. It is a method of printing ink, which is inexpensive and can be easily formed.
  • various types of quantum energy generating coils are formed by printing conductive inks on various material surfaces of 2, 4, and 6 sides inside or outside the large space, small space, and micro space divided, and battery, direct current Select a power supply suitable for space use among various power supplies such as a wireless power supply consisting of a power supply, a transmitter and a receiver and a high voltage power supply, a pulse type power supply, and install it on one side of the material surface or outside (not shown) It is possible to manufacture and install a quantum energy generating device in the form of quantum energy, and to irradiate quantum energy into space without restrictions on the size of the space.
  • a magnetic field detection sensor installed in the space of a quantum energy generating coil formed by attaching a metallic quantum energy generating coil processed into a coil shape to the surface of the material, or winding it in various quantum energy generating coil shapes using conductive coated wires on various material surfaces
  • the power supply that can cancel the electromagnetic wave generated from the electric and electronic devices installed inside the space is supplied to the quantum energy generating coil to eliminate the electromagnetic wave in the room.
  • the high-frequency pulsed power generated by the power supply is supplied to the material surfaces of 2, 4, and 6 sides of the partitioned interior or to the quantum energy generating coil installed on each side of the quantum energy generating coil. It sterilizes harmful bacteria and viruses in the air in a specific space by irradiating the pulse-type electromagnetic field of the space and superimposing and annihilating the pulse-type electromagnetic field to irradiate the quantum energy generated in the zero magnetic field state into the space.
  • the quantum energy generating coil generated by the power supply to the quantum energy generating coil installed on the 2, 4, 6 surface of the material surface or on each side (1,2,3,4,5,6 side) of the partitioned interior of the space
  • the quantum energy generating coil irradiates a high-frequency pulsed electromagnetic field into the space and superimposes and annihilates the pulsed electromagnetic field. promotes health by resonating with the natural frequency of
  • FIG. 1 is a cross-sectional view showing the overall configuration of a quantum energy generating device for irradiating an electromagnetic field and quantum energy to a specific space according to a first preferred embodiment of the present invention.
  • Figure 2 is a cross-sectional view showing the type of material printed on the surface in the form of a quantum energy generating coil.
  • FIG 3 is a cross-sectional view showing the shape of the first and second quantum energy generating coils implemented in the shape of a cusp coil.
  • Figure 4a is a cross-sectional view showing the shape of the first and second quantum energy generating coil implemented in the shape of a Helm-Heltz coil.
  • 4B is a cross-sectional view showing the shape of the first and second quantum energy generating coils implemented in the shape of a gradient saddle coil.
  • Figure 4c is a cross-sectional view showing the shape of the first and second quantum energy generating coils implemented in the shape of a uniform saddle coil.
  • Figure 4d is a cross-sectional view showing the shape of the first and second quantum energy generating coil implemented in the toroidal coil shape.
  • Figure 4e is a cross-sectional view showing the shape of the first and second quantum energy generating coil implemented in the shape of a trigger coil.
  • Figure 4f is a cross-sectional view showing the shape of the first and second quantum energy generating coils in a zigzag shape.
  • Figure 4g is a cross-sectional view showing the shape of the first and second quantum energy generating coil implemented in the shape of an extension coil.
  • Figure 4h is a cross-sectional view showing the shape of the first and second quantum energy generating coils implemented in the shape of a stator-type coil of an electric motor.
  • Figure 4i is a cross-sectional view showing the shape of the first and second quantum energy generating coils implemented in the shape of a flat or edge wise voice (edge wise voice) coil.
  • Figure 4j is a cross-sectional view showing the shape of the first and second quantum energy generating coils implemented in the shape of a toroidal coil.
  • Figure 4k is a cross-sectional view showing the shape of the first and second quantum energy generating coils implemented in the shape of a solenoid coil.
  • Figure 4l is a cross-sectional view showing the shape of the first and second quantum energy generating coil implemented in the shape of a modified RF coil.
  • Figure 4m is a cross-sectional view showing the shape of the first and second quantum energy generating coil implemented in the shape of a Tesla coil.
  • Figure 4n is a cross-sectional view showing the shape of the first and second quantum energy generating coil implemented in the shape of a Mobius coil.
  • Figure 4o is a cross-sectional view showing the shape of the first and second quantum energy generating coils implemented in the shape of a caduceus coil.
  • Figure 4p is a cross-sectional view showing the shape of the first and second quantum energy generating coil implemented in the Rogowski coil shape.
  • FIG. 5 is a cross-sectional view showing the composition of conductive silver ink, which is a material 1a, printed on a plane of first to eighth materials.
  • 6A is a cross-sectional view illustrating a composition of conductive copper ink, which is a first material material 1b, printed on the first to eighth material planes.
  • Figure 6b is a cross-sectional view showing the composition of the nanowire ink (Silver nanowire Ink) of the first material 1c printed on the plane of the first to eighth materials.
  • 6C is a cross-sectional view illustrating a manufacturing step of a conductive silver ink composition, which is a first d material, printed on a plane of the first to eighth materials.
  • 6D is a cross-sectional view showing the type of conductive metal, which is a second material, attached to the plane of the first to eighth materials.
  • 6E is a cross-sectional view showing a type of a conductive metal wire coated with a third material that is wound on the plane of the first to eighth materials.
  • FIG. 7 is a cross-sectional view illustrating the step of forming the quantum energy generating coil by printing the shape of the quantum energy generating coil with conductive ink on the plane of the first material.
  • FIG. 8A is a cross-sectional view illustrating the step of forming the quantum energy generating coil by printing the shape of the quantum energy generating coil with conductive ink on the second material plane.
  • 8B is a cross-sectional view showing the step of forming the quantum energy generating coil by printing the shape of the quantum energy generating coil with conductive ink on the third material plane.
  • 8C is a cross-sectional view illustrating the step of forming the quantum energy generating coil by printing the shape of the quantum energy generating coil with conductive ink on the fourth material plane.
  • 8D is a cross-sectional view showing the step of forming the quantum energy generating coil by printing the shape of the quantum energy generating coil with conductive ink on the plane of the fifth material.
  • 8E is a cross-sectional view illustrating the step of forming the quantum energy generating coil by printing the shape of the quantum energy generating coil with conductive ink on the sixth material plane.
  • 8f is a cross-sectional view illustrating the step of forming the quantum energy generating coil by printing the shape of the quantum energy generating coil with conductive ink on the plane of the seventh material.
  • 8G is a cross-sectional view illustrating the step of forming the quantum energy generating coil by printing the shape of the quantum energy generating coil with conductive ink on the plane of the eighth material.
  • 8H is a method in which a conductive metal punched in the form of a quantum energy generating coil is attached to the surface of the first material, the second material, the third material, the fourth material, the fifth material, the sixth material, the seventh material, and the eighth material; It is a cross-sectional view showing the steps of manufacturing a quantum energy generating coil.
  • Figure 8i is a quantum energy generating coil in a method of winding using a wire coated on the surface of the first material, the second material, the third material, the fourth material, the fifth material, the sixth material, the seventh material, and the eighth material; It is a cross-sectional view showing the steps of manufacturing.
  • Fig. 8j shows the surface of the first material, the second material, the third material, the fourth material, the fifth material, the sixth material, the seventh material, and the eighth material, and the conductive ink is printed on the surface of the 8th material shown in Fig. 8g
  • Quantum energy generating coil by applying adhesive to the surface of the first material, second material, third material, fourth material, fifth material, sixth material, and seventh material It is a cross-sectional view showing the steps of manufacturing.
  • 8K is a cross-sectional view showing a method of manufacturing a quantum energy generating coil using an electroluminescence device.
  • 8L is a cross-sectional view showing a method of manufacturing a quantum energy generating coil of a sealed structure.
  • FIG. 9 is a schematic diagram showing a first power supply for supplying power to the quantum energy generating coil formed on the first to eighth material planes.
  • 10A is a schematic diagram illustrating a second power supply for supplying power to a quantum energy generating coil formed on a plane of first to eighth materials.
  • 10B is a schematic diagram showing a third power supply for supplying power to the quantum energy generating coil formed on the plane of the first to eighth materials.
  • 10c is a schematic diagram showing a fourth power supply for supplying power to the quantum energy generating coil formed on the plane of the first to eighth materials.
  • 10D is a schematic diagram showing a fifth power supply for supplying power to the quantum energy generating coil formed on the plane of the first to eighth materials.
  • 10E is a schematic diagram illustrating a sixth power supply for supplying power to a quantum energy generating coil formed using an electroluminescence device on the surface of the material shown in FIG. 12K.
  • FIG. 11 is a cross-sectional view illustrating a first quantum energy generating device for irradiating an electromagnetic field and quantum energy in a specific space.
  • 12A is a cross-sectional view of a second quantum energy generating device for irradiating an electromagnetic field and quantum energy in a specific space.
  • 12B is a cross-sectional view of a third quantum energy generating device for irradiating an electromagnetic field and quantum energy in a specific space.
  • 12C is a cross-sectional view of a fourth quantum energy generating device that irradiates an electromagnetic field and quantum energy to a specific space.
  • 12D is a cross-sectional view of a fifth quantum energy generating device that irradiates an electromagnetic field and quantum energy in a specific space.
  • 12E is a cross-sectional view of a sixth quantum energy generating device that irradiates an electromagnetic field and quantum energy to a specific space.
  • 12f is a cross-sectional view illustrating a seventh quantum energy generating device that irradiates an electromagnetic field and quantum energy to a specific space.
  • 12G is a cross-sectional view illustrating an eighth quantum energy generating device that irradiates an electromagnetic field and quantum energy to a specific space.
  • Figure 12h is a cross-sectional view showing the 9a quantum energy generator for irradiating an electromagnetic field and quantum energy in a specific space.
  • 12i is a cross-sectional view showing a 9b quantum energy generator for irradiating an electromagnetic field and quantum energy in a specific space.
  • 12j is a cross-sectional view showing a 9c quantum energy generator for irradiating an electromagnetic field and quantum energy in a specific space.
  • 12K is a cross-sectional view showing a 9d quantum energy generating device for irradiating an electromagnetic field and quantum energy in a specific space.
  • 12L is a cross-sectional view showing a 9e quantum energy generator for irradiating an electromagnetic field and quantum energy in a specific space.
  • FIG. 13 is a cross-sectional view illustrating a configuration for irradiating quantum energy by installing a first quantum energy generating device in a space partitioned by a material in which a quantum energy generating coil is formed.
  • FIG. 14 is a cross-sectional view showing the first quantum energy generating device 400A of the braking radiation method.
  • 15 is a cross-sectional view showing the second quantum energy generating device 400B of the braking radiation method.
  • 16 is a cross-sectional view in which a 2-1 quantum energy generating device 400A or a 2-2 quantum energy generating device 400B of a braking radiation type, which is a second quantum energy generating device, is installed on a material plane forming four sides of space. .
  • Paper with thick and strong lipids such as thin white paper, small wall paper, diagonal paper, and inner wall paper, commercially available such as Changho paper, Sago paper, Yusam paper, Taemi basin, Sannaeji, Wansanji, Kapyeongji, Gyeonyangji, etc.
  • Recycled paper such as long-stitched paper and insect repellent paper, with a slightly thicker thickness such as gakji, taejangji, yeongchangji, daejangji, nongseonji, ipmoji, saefuji, exterior paper, hejongjungji, shijiji, etc.
  • the first material 110 which is a type of paper such as colored paper, corrugated paper, etc.; and
  • the second material 120 which is a non-conductive material such as PVC, PE, PC, acrylic, Bakelite, tempered glass molded foam (FRP), Teflon, and urethane;
  • a third material 130 which is a metal material such as a panel to which is attached;
  • the fourth material 140 such as general plywood, pine plywood, core plywood, larch plywood, MDF, particle board, etc. wood plywood; and
  • the fifth material 150 which is an inorganic material such as concrete, tile, block, brick, board, stone (marble exterior material, etc.);
  • a sixth material 160 such as vegetable fiber, vegetable fiber, mineral fiber, regenerated fiber, synthetic fiber, inorganic fiber.
  • the seventh material 170 such as thin plate glass, thick plate glass, transparent abrasive plate glass, sun shielding glass, X-ray blocking, heat insulation, and blocking glass for preventing condensation;
  • any one of the transparent eighth material 180 such as polyimide, PET (polyethyleneterephthalate), PMMA (polymethylmethacrylate), PDMS (polymethylsiloxane), polyester film, polyethylene film, polypropylene film, PVC film, etc. Selected and used material 100; and
  • Paper with thick and strong lipids such as thin white paper, small wall paper, diagonal paper, and inner wall paper, commercially available such as Changho paper, Sago paper, Yusam paper, Taemi basin, Sannaeji, Wansanji, Kapyeongji, Gyeonyangji, etc.
  • Recycled paper such as long-stitched paper and insect repellent paper, with a slightly thicker thickness such as gakji, taejangji, yeongchangji, daejangji, nongseonji, ipmoji, saefuji, exterior paper, hejongjungji, shijiji, etc.
  • Flexography screen printing on the surface of the first material 110 in which any one of the materials such as honji, jade paper, red paper, yellow paper, blue paper, dark blue paper, blue paper, and corrugated paper is selected.
  • any one of the second materials 120 of non-conductive materials such as PVC, PE, PC, acrylic, Bakelite, tempered glass molded foam (FRP), Teflon, and urethane, and apply one surface of the selected material.
  • a second method 220 of selecting any one coil shape from among the shapes, printing and drying with conductive ink prepared in advance to form quantum energy generating coils (first and second and second
  • any one of the third materials 130 such as metal materials such as panels to which is attached, and grind one surface of the selected material with an electric sander, wash it with a cleaning agent, flexography, screen printing, offset
  • ,Zigzag coils top and bottom, left and right
  • extension coils motor stator coils, square Caduceus coils, RF coils, toroidal coils, Tesla coils, Mobius coils ), (Caduceus Coil), a shape of a Rogoski coil, and a shape of a combination of these shapes are selected and the conductive ink prepared in advance is used in a printing machine to generate a quantum energy coil shape selected in advance.
  • any one of the fourth materials 140 such as wood plywood such as general plywood, pine pine plywood, core plywood, larch plywood, MDF, particle board, etc., and use an electric sander to sand one or both surfaces of the selected material.
  • any one of the fifth materials 150 such as inorganic materials such as concrete, tile, block, brick, board, stone (marble exterior, etc.) After washing, select any one printing method among flexography, screen printing, offset printing, web grabber, inkjet printing, and dry printing, and apply a solenoid coil, a toroid coil, a cusp coil, and a Helm Heltz to the surface of the material.
  • any one of the sixth materials 160 such as vegetable fiber, vegetable fiber, mineral fiber, regenerated fiber, synthetic fiber, inorganic fiber, and flexography, screen printing, offset printing, web grabber, inkjet printing, Select any one printing method among dry printing methods and apply solenoid coil, toroid coil, cusp coil, helm-heltz coil, gradient saddle coil, uniform saddle coil, toroid coil, trigger coil, zigzag coil (up and down) to the surface of the material.
  • a sixth method 260 of forming a quantum energy generating coil (first, second quantum energy generating coil); and
  • Select any one of the seventh materials 170 such as blocking glass for X-ray blocking, heat insulation, and anti-condensation, and after removing fine dust from the surface of the selected material with a vacuum cleaner, use a solvent such as ethyl alcohol or isopropyl alcohol After removing impurities from the surface, select any one printing method among flexography, screen printing, offset printing, web grabber, inkjet printing, and dry printing on one or both surfaces of the material and apply a solenoid coil to the surface of the material.
  • a method of forming a quantum energy generating coil (first, second quantum energy generating coil) by printing and drying a pre-prepared conductive ink by selecting a coil shape in a pre-selected quantum energy generating coil shape using a printing machine. a seventh method 270; and
  • any one material from the eighth material 180 such as polyimide, PET (polyethyleneterephthalate), PMMA (polymethyl methacrylate), PDMS (polymethylsiloxane), polyester film, polyethylene film, polypropylene film, PVC film, etc.
  • the solenoid coil, toroid coil inputted to the control unit (micom) of the printing machine using inkjet, flexographic, and gravure offset printing methods on the material surface or both surfaces , cusp coil, helm-heltz coil, gradient saddle coil, uniform saddle coil, toroid coil, trigger coil, zigzag coil (up and down, left and right), extension coil, motor stator coil, square coil, RF coil ,Troidal coil, Tesla coil, Mobius Coil, Caduceus coil, (Caduceus Coil), Rogoski coil (Rogoski coil) shape, and any one of the shape of a combination of these coil shapes
  • the thickness of the film on the surface of the material in the form of a pre-selected quantum energy generating coil by using a pre-prepared conductive solution in a selected shape; Eighth method of forming quantum energy generating coils (first and second quantum energy generating coils) by printing and drying under the conditions of 4-10
  • the first material 110, the second material 120, the third material 130, the fourth material 140, the fifth material 150, the sixth material 160, the seventh material 170, the third material Select any one of the 8 materials 180, or solenoid coil, toroid coil, cusp coil, Helm Helts coil, gradient saddle coil, uniform saddle coil, toroid coil, trigger coil, zigzag form on the surface of each material.
  • Coil up and down, left and right
  • extension coil motor stator coil, square coil, RF coil, toroidal coil, Tesla coil, Mobius coil, Caduceus coil Coil), Rogoski coil shape, and a combination of these shapes select any one coil shape, and select iron (Fe), copper (Cu), zinc (Zn), tin (Sn) ,Stainless steel (STS 304, STS316), aluminum (AL), titanium (Ti), platinum (Pt), any one of the material is selected from the hastaloid material, the selected material is made into the selected coil shape using a laser A 9a method (290a) in which the processed quantum energy generating coil is attached after an adhesive is applied to the surface of the material to form a quantum energy generating coil (first and second quantum energy generating coils); and
  • the first material 110, the second material 120, the third material 130, the fourth material 140, the fifth material 150, the sixth material 160, the seventh material 170, the third material Select any one of the 8 materials 180, or on each material surface, a solenoid coil, toroid coil, cusp coil, Helm Heltz coil, gradient saddle coil, uniform saddle coil, toroid coil, trigger coil, zigzag type Coil (up and down, left and right), extension coil, motor stator coil, square coil, RF coil, toroidal coil, Tesla coil, Mobius coil, Caduceus coil Coil), a Rogoski coil shape, and a shape of a combination of these shapes are selected, and an adhesive is applied to the surface of the material and a conductive metal wire coated with the selected shape is used to generate quantum energy.
  • Quantum energy generating coil (first, first 2) a 9b method (290b) of forming a quantum energy generating coil; and
  • the first material 110, the second material 120, the third material 130, the fourth material 140, the fifth material 150, the sixth material 160, the seventh material 170, the third material Select any one of the 8 materials 180 or apply polyimide, PET (polyethyleneterephthalate), PMMA (polymethyl methacrylate), PDMS (polymethylsiloxane), polyester film, polyethylene film, or polypropylene film to the surface of each material.
  • a conductive solution prepared in advance in a shape selected from coil shapes is applied to the surface of the material using a selected printing machine to obtain a film thickness; Eighth method of forming quantum energy generating coils (first and second quantum energy generating coils) by printing and drying under 4-10 ⁇ m, line width; 50-80 ⁇ m, volume resistivity;
  • a transparent substrate (1), a first electrode (2), an electroluminescent layer (3), a second electrode (4) is selected from among the eight materials (180), or on the plane of any one selected on the surface of each material.
  • the first electrode (2) is formed in the form of a quantum energy generating coil-shaped strip (stripe)
  • the organic electroluminescent layer (3) is formed on the first electrode (2)
  • the shape of the quantum energy generating coil formed in the (stripe) form is a solenoid coil, a toroid coil, a cusp coil, a Helm-Heltz coil, a gradient saddle coil, a uniform saddle coil, a toroid coil, a trigger coil, a zigzag coil (up and down, Left and right), extension coil, motor stator coil, square coil, RF coil, toroidal coil, Tesla coil, Mobius coil, Caduceus coil, logo Select any one coil shape from among the Rogoski coil shape and a combination of these shapes, process it into the selected shape, insulate
  • Second material 120 iron (Fe), copper (Cu), zinc (Zn), tin (Sn), which are non-conductive materials such as PVC, PE, PC, acrylic, bakelite, and glass fiber molded foam (FRP) ,Stainless steel (STS304, STS316), aluminum (AL), titanium (Ti), platinum (Pt), hastalloy, the third material 130, which is a metal material such as a panel with insulation or insulation attached, concrete wall, tile , Blocks, bricks, boards, stone materials (marble exterior materials, etc.), the fifth material 150, which is an inorganic material, thin plate glass, thick plate glass, transparent abrasive plate glass, sun shielding glass.
  • the third material 130 which is a metal material such as a panel with insulation or insulation attached, concrete wall, tile , Blocks, bricks, boards, stone materials (marble exterior materials, etc.
  • the fifth material 150 which is an inorganic material, thin plate glass, thick plate glass, transparent abrasive plate glass, sun shielding glass.
  • 7th material 170 such as blocking glass, polyimide, PET (polyethyleneterephthalate), PMMA (polymethyl methacrylate), PDMS (polymethylsiloxane), polyester film, polyethylene film, polypropylene film, transparent material such as PVC film
  • Any one material is selected from among the eighth material 180 of , Concrete wall, tile, block, brick, board, etc.
  • the material selected from the fifth material 150 which is an inorganic material, uses an electric sander to grind the part where the quantum energy generating coil will be formed and remove the dust using a vacuum cleaner.
  • the material selected from the seventh material 170 such as thick plate glass and the eighth material 180 such as polyimide is the area where the quantum energy generating coil is formed by using a cleaning solution such as isopropyl alcohol.
  • a cleaning solution such as isopropyl alcohol.
  • any one printing method is selected, Coil, gradient saddle coil, uniform saddle coil, toroidal coil, trigger coil, zigzag coil (top and bottom, left and right), extension coil, motor stator shape coil, square coil, RF coil, toroidal coil, Tesla coil (Tesla coil), Mobius coil (Mobius Coil), Caduceus coil (Caduceus Coil), Rogoski coil (Rogoski coil) shape and any one of the shape of a combination of these shapes is selected from the coil shape, After printing and drying the conductive ink in a pre-selected quantum energy generating coil shape using a printing machine, iron (Fe), copper (Cu), zinc (Zn), tin (Sn
  • the fifth material 150 which is an inorganic material such as blocks, bricks, boards, and stones (marble exterior materials, etc.) polymethylsiloxane), polyester film, polyethylene film, polypropylene film, PVC film, etc., attaching any one of the eighth material 180 of a transparent material,
  • the second material 120 which is a non-conductive material such as PVC, PE, PC, acrylic, Bakelite, tempered glass molding foam (FRP), etc., on which a quantum energy radiation coil is formed on the surface, or iron ( Fe), copper (Cu), zinc (Zn), tin (Sn), stainless steel (STS304, STS316), aluminum (AL), titanium (Ti), platinum (Pt), hastalloy, etc.
  • the material 130 selects any one shape among the shapes of the quantum energy generating coil, and uses the selected shape as the material from the 9e method 290e of attaching the quantum energy generating coil processed by the model picking technique using the laser technology.
  • Quantum energy generating coil 200 manufactured by selecting any one formation method according to the type; and
  • the control module 323c is composed of a built-in control module 323, current detection sensor 324, magnetic field detection sensor 325 consisting of 2 power supply 320; and
  • Power transmitter 330 consisting of a power supply unit 331, an output power generation unit 332, a frequency modulation unit 333, an output time adjustment unit 334, and a transmission coil unit 335;
  • a power receiver 330a consisting of a receiving coil unit 331a, a power generating unit 332a, and a feedback signal generating unit 333a;
  • Converter unit 331b inverter unit 332b, resonance reactor 333b, pulse transformer 334b, control unit 335b, gate driver 336b, magnetic field detection sensor 336b-1, first condenser 337b ), and a third power supply 330 composed of a high voltage generator 330b composed of a second condenser 338b;
  • a fourth power supply 340 comprising an input unit 341, a control unit 342, a magnetic field detection sensor 342a, a switching converter unit 343, a high voltage generating unit 344, and a rectifying unit 345; and
  • Power supply (351), AC/DC converter (352), power supply automatic switch (353) (ATS), low frequency
  • the generator and output unit 354, the switching element 355, the surface temperature sensor of the quantum energy generating coil, the PWM (pulse width modulation) control method and the pulse frequency modulation PFM (pulse frequency modulation) and the pulse frequency ( Density) control (PDM), pulse repetition rate control (PRR) function is built-in control unit 356, a fifth power supply 350 consisting of a magnetic field detection sensor (356a); and
  • a sixth power source composed of a power supply unit 361 , an EL driving unit and an overload detection unit 362 of the quantum energy generating coil, a voltage adjusting unit 363 , a frequency modulation unit 364 , a magnetic field detection sensor 364a , an EL driving unit 365 .
  • flexography, screen printing, offset printing, web grabber, inkjet printing, and any one printing method are selected from among dry printing methods to select a cusp coil, a Helm Heltz coil ,gradient saddle coil, uniform saddle coil, toroidal coil, trigger coil, zigzag coil (top and bottom, left and right), extension coil, motor stator shape coil, square coil, RF coil, toroidal coil shape, Tesla coil (Tesla coil), Mobius coil (Mobius Coil), Caduceus coil (Caduceus Coil), Rogoski coil (Rogoski coil) shape, select any one coil shape from a combination of these shapes, the conductivity prepared in advance
  • a first quantum energy generating device 371 consisting of the selected power supply 300;
  • flexography, screen printing, offset printing, web grabber, inkjet printing, and dry printing are selected by any one of the printing methods to select a cusp coil, a Helm Heltz coil.
  • Gradient saddle coil, uniform saddle coil, toroidal coil, trigger coil, zigzag coil (top and bottom, left and right), extension coil, motor stator shape coil, square coil, RF coil, toroidal coil, Tesla coil ( Tesla coil), Mobius Coil, Caduceus Coil, Rogoski coil shape, and any one coil shape is selected from a combination of these shapes, and conductive ink prepared in advance
  • a second quantum energy generating device 372 consisting of a selected power supply 300;
  • flexography, screen printing, offset printing, web grabber, inkjet printing, and any one printing method are selected from among dry printing methods to select a cusp coil, a Helm Heltz coil ,Gradient saddle coil, uniform saddle coil, toroidal coil, trigger coil, zigzag coil (top and bottom, left and right), extension coil, motor stator shape coil, square coil, RF coil, toroidal coil, Tesla coil ( Tesla coil), Mobius Coil, Caduceus Coil, Rogoski coil shape, and any one coil shape is selected from a combination of these shapes, and conductive ink prepared in advance
  • flexography, screen printing, offset printing, web grabber, inkjet printing, and any one printing method are selected from among dry printing methods, and cusp coil, Helm Heltz coil ,Gradient saddle coil, uniform saddle coil, toroid coil, trigger coil, zigzag coil (top and bottom, left and right), extension coil, motor stator shape coil, square coil, RF coil, toroidal, Tesla coil (Tesla) coil), Mobius Coil, Caduceus Coil, Rogoski coil coil shape, and any one coil shape selected from a combination of these shapes
  • any one of flexography, screen printing, offset printing, web grabber, inkjet printing, and dry printing is selected, and the cusp coil, Helm Heltz coil , gradient saddle coil, uniform saddle coil, toroid coil, trigger coil, zigzag coil (top and bottom, left and right), extension coil, motor stator shape coil, square coil, RF coil, toroidal coil, Tesla coil ( Tesla coil), Mobius coil, Caduceus coil, Rogoski coil shape, and any one coil shape from a combination of these shapes is selected, and conductive ink prepared in advance
  • a fifth quantum energy generating device for supplying power to the quantum energy generating
  • flexography, screen printing, offset printing, web grabber, inkjet printing, and any one printing method are selected from among dry printing methods, and cusp coil, Helm Heltz coil ,Gradient saddle coil, uniform saddle coil, toroidal coil, trigger coil, zigzag coil (top and bottom, left and right), extension coil, motor stator shape coil, square coil, RF coil, toroidal coil, Tesla coil ( Tesla coil), Mobius coil, Caduceus coil, Rogoski coil shape, and any one coil shape from a combination of these shapes is selected, and conductive ink prepared in advance
  • flexography, screen printing, offset printing, web grabber, inkjet printing, and dry printing method are selected to select any one printing method, such as a cusp coil, a Helm Heltz coil ,Gradient saddle coil, uniform saddle coil, toroidal coil, trigger coil, zigzag coil (top and bottom, left and right), extension coil, motor stator shape coil, square coil, RF coil, toroidal coil, Tesla coil ( Tesla coil), Mobius coil, Caduceus coil, Rogoski coil shape, and any one coil shape from a combination of these shapes is selected, and conductive ink prepared in advance
  • flexography, screen printing, offset printing, web grabber, inkjet printing, and dry printing method are selected to select any one printing method, such as a cusp coil, a Helm Heltz coil ,Gradient saddle coil, uniform saddle coil, toroidal coil, trigger coil, zigzag coil (top and bottom, left and right), extension coil, motor stator shape coil, square coil, RF coil, toroidal coil, Tesla coil ( Tesla coil), Mobius Coil, Caduceus Coil, Rogoski coil shape, and any one coil shape is selected from a combination of these shapes, and conductive ink prepared in advance
  • the first material 110, the second material 120, the third material 130, the fourth material 140, the fifth material 150, the sixth material 160, the seventh material 170, the third material 8 Solenoid coil, toroid coil, cusp coil, helm-heltz coil, gradient saddle coil, uniform saddle coil, toroid coil, trigger coil, zigzag coil (top and bottom, left and right), extension type with adhesive on the surface of the material (180) Coil for motor stator, square coil, RF coil, toroidal coil, Tesla coil, Mobius coil, Caduceus coil, Rogoski coil ) and a combination of these shapes, select any one coil shape, and select iron (Fe), copper (Cu), zinc (Zn), tin (Sn), stainless steel (STS304, STS316), Any one material is selected from among aluminum (AL), titanium (Ti), platinum (Pt), and hastaloid materials, and a quantum energy generating coil processed into the selected coil shape using a laser is attached to the selected material.
  • A aluminum
  • Ti titanium
  • Any one type of material is selected from among the 1st material, 2nd material, 3rd material, 4th material, 5th material, 6th material, 7th material, and 8th material, or a solenoid coil on the surface of each material, Toroid coil, cusp coil, helm-heltz coil, gradient saddle coil, uniform saddle coil, toroid coil, trigger coil, zigzag coil (top and bottom, left and right), extension coil, motor stator shape coil, square coil, Any one coil among the shapes of RF coil, Troidal coil, Tesla coil, Mobius coil, Caduceus coil, Rogoski coil, and combinations of these shapes After selecting a shape, applying an adhesive on the surface of the selected material, winding a quantum energy generating coil with a conductive wire coated in the selected shape, or EL Wire (Electroluminescence Device) manufactured using the manufacturing technology.
  • Toroid coil cusp coil, helm-heltz coil, gradient saddle coil, uniform saddle coil, toroid coil, trigger coil, zigzag coil (top
  • Power to the quantum energy generating coil (first and second quantum energy generating coil) and the quantum energy generating coil manufactured in the 9th method 290b of the method of winding in the shape of the selected quantum energy generating coil using an electroluminescent wire) Supplying the first power supply 310, the second power supply 320, the third power supply 330, the fourth power supply 340, the fifth power supply 350, the sixth power supply 360, A 9b quantum energy generating device 379b consisting of a power supply 300 from which any one type of battery (not shown) is selected; and
  • any one of the 1st material, 2nd material, 3rd material, 4th material, 5th material, 6th material, and 7th material is selected, and polyimide, PET (polyethyleneterephthalate) is applied to the surface of the selected material.
  • PMMA polymethyl methacrylate
  • PDMS polymethylsiloxane
  • polyester film polyethylene film, polypropylene film, and PVC film
  • inkjet, flexographic, and gravure offset printing methods are applied on one or both surfaces of the selected material.
  • a second power supply 320 a third power supply 330, a fourth power supply 340, a fifth power supply 350, a sixth power supply 360, any one of a battery (not shown) 9c quantum energy generating device 379c consisting of the selected power supply 300; and
  • the first electrode 2 is formed in the form of a stripe in the form of a quantum energy generating coil on the transparent substrate 1
  • the organic electroluminescent layer 3 is formed on the first electrode 2
  • the second electrode 4 is formed in the form of a stripe in the form of a quantum energy generating coil
  • the first electrode 2 and the second electrode 4 are in the form of a stripe.
  • the shape of the quantum energy generating coil formed by Shaped Coil, Motor Stator Coil, Square Coil, RF Coil, Troidal Coil, Tesla Coil, Mobius Coil, Caduceus Coil, Rogoski Coil coil) shape and a combination of these shapes are selected, and the winding direction of the selected quantum energy generating coil is counterclockwise or clockwise.
  • the prepared conductive ink is printed and dried in a selected quantum energy generating coil shape using a printing machine to form quantum energy generating coils (first and second quantum energy generating coils), and a plurality of materials in which quantum energy generating coils are formed are used.
  • the first space is partitioned and a second space with reduced volume is created by separating the first space by a certain distance.
  • the edge of the interviewed edge is welded and sealed by any type of welding machine among ARC welding machine, TIG welding machine, MIG welding machine, and PVC welding machine.
  • a first quantum energy generator (300A) consisting of (379e);
  • a sealed glass tube 401, a thermal electron emitting cathode 404 having a filament installed on the left side of the glass tube, a power supply 402 for supplying DC power to the cathode 404, and the cathode 404 are spaced apart by a certain distance
  • a high voltage power supply 411 for applying a high voltage to the first anode 413 and a predetermined area on one side of the lower side of the sealed glass tube 401
  • a second anode 423 made of a material such as rhodium is installed in an opening opened by
  • a quantum energy emitting layer 424 made of a material such as beryllium is installed on the external exposed surface, and power is supplied to the cathode 404 through a power supply 402, and the first anode power supply 411 Connect the lead wire 412 connected to the first anode 413 to the + terminal on the output side of the A 2-1 quantum energy generator 400A
  • the second anode 453 is installed on the sealing glass tube 437 projected vertically downward to the target plate 436 installed on the inclined surface of the first anode 435, and the second anode 453 is surfaced on the surface.
  • a quantum energy dissipation layer 454 is provided.
  • a first power supply 431 for applying a high voltage to the cathode 433 and the first anode 435 through a conductive wire is installed spaced apart from the left side of the sealing glass tube by a predetermined distance, and the gate electrode is spaced in the downward direction.
  • a second power supply 441 for supplying power to the 443 is installed, the output side of the first power supply 431 and the second power air 441 - by common wiring to the first power supply 431 and a bias circuit between the second power supply air 441 and the second power supply air 441.
  • a third power supply 451 for applying a high voltage to the second anode 453 is installed at a distance from the second power supply 441 in the downward direction.
  • a second braking radiation constituting a bias circuit between the second power supply 441 and the third power supply 451 by common wiring the -terminal of the output side of the second power supply 441 and the third power supply 451 2-2 quantum energy generating device 430 of the type; a quantum energy generating coil characterized in that it is composed of a second quantum energy generating device (400B) composed of a material printed or attached to the surface and divided by these materials
  • a quantum energy generator that irradiates quantum energy into a specific space is presented.
  • FIG. 1 is a cross-sectional view showing the overall configuration of a quantum energy generating device that irradiates an electromagnetic field and quantum energy in a specific space.
  • (100) Formed by printing and drying conductive ink on the surface of the material in the shape of a quantum energy coil using a printing machine, or attaching a metal plate processed in the shape of a quantum energy generating coil to the selected material surface, or using a coated conductive metal wire
  • a first quantum energy generating device 300A consisting of a quantum energy generating coil coil 200 formed by winding in the form of a quantum energy generating coil, and a power supply 300 supplying power to the quantum energy generating coil, and
  • Paper with thick and strong lipids such as thin white paper, small wall paper, diagonal paper, inner wall paper, such as Changho paper, Sago paper, Yusam paper, Taemi basin, Sannae paper, Wansan paper, Kapyeong paper, Gyeonyang paper, etc.
  • Recycled paper such as long paper, insect repellent paper, etc., which is a little thick such as double-knitted paper, taejang paper, yeongchangji, daejangji, farmseonji, ipmoji, saefuji, exterior paper, hejongjungji, shibji, etc.
  • the first material 110 which is a type of paper such as colored paper, corrugated paper, etc.; and
  • the second material 120 which is a non-conductive material such as PVC, PE, PC, acrylic, Bakelite, glass fiber molded foam (FRP), Teflon, and urethane; and
  • the third material 130 which is a metal material such as a panel to which a low-e, heat insulating material or cold insulation material is attached; and
  • the fourth material 140 such as general plywood, pine plywood, core plywood, larch plywood, MDF, particle board, etc. wood plywood; and
  • the fifth material 150 which is an inorganic material such as concrete, tile, block, brick, board, stone (marble exterior material, etc.);
  • a sixth material 160 such as vegetable fiber, vegetable fiber, mineral fiber, regenerated fiber, synthetic fiber, inorganic fiber.
  • the seventh material 170 such as blocking glass for X-ray blocking, heat insulation, and anti-condensation; and,
  • any one of the transparent eighth material 180 such as polyimide, PET (polyethyleneterephthalate), PMMA (polymethyl methacrylate), PDMS (polymethylsiloxane), polyester film, polyethylene film, polypropylene film, PVC film, etc. is selected and used material 100; and
  • Paper with thick and strong lipids such as thin white paper, small wall paper, diagonal paper, and inner wall paper, commercially available such as Changho paper, Sago paper, Yusam paper, Taemi basin, Sannaeji, Wansanji, Kapyeongji, Gyeonyangji, etc.
  • Recycled paper such as long-stitched paper and insect repellent paper, which is a slightly thicker paper such as gakji, taejangji, yeongchangji, daejangji, nongseonji, ipmoji, saefuji, exterior paper, hejongjungji, shijiji, etc.
  • Flexography screen printing, offset on the surface of the first material 110 in which any one of the materials such as colored paper, corrugated paper, etc. is selected, such as honji, jade paper, red paper, yellow paper, blue paper, dark blue paper, sub-blue paper, etc.
  • any one of the second materials 120 of non-conductive materials such as PVC, PE, PC, acrylic, Bakelite, glass fiber molded foam (FRP), Teflon, and urethane, and apply one surface of the selected material.
  • select any one printing method among flexography, screen printing, offset printing, web grabber, inkjet printing, and dry printing, Toroid coil, cusp coil, helm-heltz coil, gradient saddle coil, uniform saddle coil, toroid coil, Maxwell coil.
  • Trigger coil Trigger coil, zigzag coil (top and bottom, left and right), extension coil, shape coil for motor stator, flat Among the shapes of square coil, RF coil, toroidal coil, Tesla coil, Mobius coil, Caduceus coil, Rogoski coil, and combinations of these shapes, A second forming method 220 of selecting any one coil shape, printing and drying the selected shape with a conductive ink prepared in advance to form quantum energy generating coils (first and second quantum energy generating coils); and
  • any one of the third materials 130 such as a metal material such as a panel with a low-e, an insulating material or a panel with an insulating material attached, and grinding one surface of the selected material with an electric sander and cleaning it with a cleaning agent, flexography ,Screen printing, offset printing, web grabber, inkjet printing, dry printing method by selecting any one printing method on the surface, solenoid coil, toroid coil, cusp coil, Helm Heltz coil, gradient saddle coil, uniform saddle coil, Toroid coil, trigger coil, zigzag coil (top and bottom, left and right), extension coil, motor stator shape coil, square coil, RF coil, toroidal coil, Tesla coil, Mobius coil Coil), Caduceus Coil, Rogoski coil shape, and any one of the shapes
  • any one of the fourth materials 140 such as wood plywood such as general plywood, pine pine plywood, core plywood, larch plywood, MDF, particle board, etc., and use an electric sander to sand one or both surfaces of the selected material.
  • select any one of the pre-fabricated flexography, screen printing, offset printing, rotogver, inkjet printing, and dry printing methods and apply the solenoid coil, toroid coil , cusp coil, helm-heltz coil, gradient saddle coil, uniform saddle coil, toroid coil, trigger coil, zigzag coil (top and bottom, left and right), extension coil, motor stator coil, square coil, RF coil , Toroidal coil, Tesla coil, Mobius Coil, Caduceus coil, (Caduceus Coil), Rogoski coil (Rogoski coil) shape, and any one of the shape of a combination of these shapes
  • any one of the fifth materials 150 such as inorganic materials such as concrete wall or structure, tile, block, brick, board, stone (marble exterior material, etc.), and grind one surface of the selected material with an electric sander ,
  • any one of the sixth materials 160 such as vegetable fiber, vegetable fiber, mineral fiber, regenerated fiber, synthetic fiber, and inorganic fiber, and flexography, screen printing, offset printing, web rotation on the surface of the selected material
  • Shaped coil top and bottom, left and right
  • extension type coil motor stator type coil, square coil, RF coil, toroidal coil, Tesla coil, Mobius coil, Caduceus coil ( Caduceus Coil), Rogoski coil shape, and any one of the shapes combined with these shapes is selected, and the selected shape is printed and dried with pre-manufactured conductive ink to generate quantum energy on the material.
  • a sixth forming method 260 for forming (first and second quantum energy generating coils);
  • any one of the seventh materials 170 such as thin plate glass, thick plate glass, transparent abrasive plate glass, sun shielding glass.
  • impurities on the surface are removed using a solvent such as ethyl alcohol or isopropyl alcohol, and then on one or both surfaces of the material, either flexography, screen printing, offset printing, web grabber, inkjet printing, or dry printing method.
  • any one of the eighth material 180 such as polyimide, PET (polyethyleneterephthalate), PMMA (polymethyl methacrylate), PDMS (polymethylsiloxane), polyester film, polyethylene film, polypropylene film, PVC film,
  • a conductive solution is applied to one or both surfaces of the material using inkjet, flexographic, and gravure offset printing methods to input the solenoid coil into the control unit (micom) of the printing machine.
  • a shape is selected, and a film thickness on the surface of the material with a conductive ink prepared in advance in the selected shape;
  • the first material 110, the second material 120, the third material 130, the fourth material 140, the fifth material 150, the sixth material 160, the seventh material 170, the third material 8 Select any one material from among polyimide, PET (polyethyleneterephthalate), PMMA (polymethyl methacrylate), PDMS (polymethylsiloxane), polyester film, polyethylene film, polypropylene film, and PVC film on the surface of the 8 material 180, After removing fine dust from the selected material surface with a vacuum cleaner, a conductive solution is applied to one or both surfaces of the material using inkjet, flexographic, and gravure offset printing methods to input the solenoid coil into the control unit (micom) of the printing machine.
  • the first material 110, the second material 120, the third material 130, the fourth material 140, the fifth material 150, the sixth material 160, the seventh material 170, the third material It consists of a transparent substrate (1), a first electrode (2), an electroluminescent layer (3), and a second electrode (4) on a plane of any one material selected from among the eight materials (180).
  • One electrode 2 is formed in the form of a stripe in the form of a quantum energy generating coil, an organic electroluminescent layer 3 is formed on the first electrode 2 , and a second electrode is formed on the organic electroluminescent layer 3 .
  • (4) consists of a structure formed in the form of a stripe in the form of a quantum energy generating coil, the quantum energy generating coil formed in the form of a stripe on the first electrode 2 and the second electrode 4
  • the shape is solenoid coil, toroid coil, cusp coil, helm-heltz coil, gradient saddle coil, uniform saddle coil, toroid coil, trigger coil, zigzag coil (top and bottom, left and right), extension type coil, motor stator type Coil, square coil, RF coil, toroidal coil, Tesla coil, Mobius coil, Caduceus coil, Caduceus Coil, Rogoski coil shapes and combinations of these shapes Select any one coil shape among the shapes, and it is processed into the selected shape and insulated with an insulating material (not shown) between the stripe and the strip, and the winding direction is counterclockwise or clockwise to generate quantum energy
  • a 9d forming method (290d) in which a coil is manufactured and the produced quantum energy generating coil (first, second quantum energy generating coil)
  • Non-conductive materials such as PVC, PE, PC, acrylic, Bakelite, tempered glass molded foam (FRP), Teflon, and urethane, the second material 120, iron (Fe), copper (Cu), zinc (Zn), Tin (Sn), stainless steel (STS304, STS316), aluminum (AL), hastalloy, panel with insulation or insulation attached, aluminum (Al), titanium (Ti), nickel (Ni), platinum (Pt), etc.
  • the third material 130 which is a metallic material
  • the fifth material 150 which is an inorganic material such as concrete wall, tile, block, brick, board, stone (marble exterior material, etc.), thin plate glass, thick plate glass, transparent abrasive plate glass, sun shield glass.
  • 7th material 170 such as blocking glass for X-ray blocking, heat insulation, and anti-condensation, polyimide, PET (polyethylene terephthalate), PMMA (polymethyl methacrylate), PDMS (polymethylsiloxane), polyester film, polyethylene film, polypropylene Select any one of the eighth materials 180 of transparent materials such as films and PVC films,
  • the second material 120 which is a non-conductive material such as PVC, PE, and the third material 130, which is a metal material such as iron (Fe), copper (Cu), aluminum (Al), titanium (Ti), nickel (Ni), etc. ), concrete wall, tile, block, brick, board, etc.
  • the selected material from the fifth material 150 which is an inorganic material, uses an electric sander to grind the part where the quantum energy generating coil is to be formed and remove the dust using a vacuum cleaner. After removal, any one selected from the seventh material 170 such as thick plate glass and the eighth material 180 such as polyimide is used with a cleaning solution such as isopropyl alcohol to form a quantum energy generating coil.
  • any one printing method among flexography, screen printing, offset printing, web grabber, inkjet printing, and dry printing, and apply the solenoid coil, toroid coil, cusp coil, helm Heltz coil, gradient saddle coil, uniform saddle coil, toroid coil, trigger coil, zigzag coil (top and bottom, left and right), extension coil, motor stator shape coil, square coil, RF coil, toroidal coil, ( Tesla coil), Mobius coil, Caduceus coil, Rogoski coil shape, and any one coil shape selected from a combination of these shapes, and manufactured in advance After the conductive ink is printed and dried in a pre-selected form of a quantum energy generating coil using a printing machine,
  • the third material 130 has the front and back surfaces of the printed coil facing outward so that it is in contact with the liquid or inward so that it does not come into contact with the liquid. After pulling out the outside (protruding from the bonding surface), select any one welding method among ARC welding, TIG welding, and MIG welding for the edge of the bonding surface to weld the edge of the bonding surface.
  • the fifth material 150 which is an inorganic material such as concrete walls, tiles, blocks, bricks, and boards, is
  • Eighth transparent material such as polyimide, PET (polyethyleneterephthalate), PMMA (polymethyl methacrylate), PDMS (polymethylsiloxane), polyester film, polyethylene film, polypropylene film, PVC film, etc. Attach any one of the materials 180, or
  • the second material 120 which is a non-conductive material such as PVC, PE, PC, acrylic, Bakelite, tempered glass molded foam (FRP), Teflon, and urethane with a quantum energy radiation coil formed on the surface or iron (Fe), copper (Cu), zinc (Zn), tin (Sn), stainless steel (STS304, STS316), aluminum (Al), titanium (Ti), nickel (Ni), hastalloy, etc.
  • the third material 130 which is a metallic material, selects any one shape among the shapes of the quantum energy generating coil, and attaches the quantum energy generating coil processed by the model picking technique using the laser technology to the selected shape.
  • a quantum energy generating coil forming method 200 in which any one forming method is selected according to the type of material from among (290e); and
  • the control module 323c is composed of a built-in control module 323, current detection sensor 324, magnetic field detection sensor 325 consisting of 2 power supply 320; and
  • Power transmitter 330 consisting of a power supply unit 331, an output power generation unit 332, a frequency modulation unit 333, an output time adjustment unit 334, and a transmission coil unit 335;
  • a power receiver 330a consisting of a receiving coil unit 331a, a power generating unit 332a, and a feedback signal generating unit 333a;
  • Converter unit 331b inverter unit 332b, resonance reactor 333b, pulse transformer 334b, control unit 335b, gate driver 336b, magnetic field detection sensor 336b-1, first condenser 337b ), and a third power supply 330 composed of a high voltage generator 330b composed of a second condenser 338b;
  • a fourth power supply 340 consisting of an input unit 341, a control unit 342, a magnetic field detection sensor 342a, a switching converter 343, a high voltage generating unit 344, and a rectifying unit 345; and
  • Power supply (351), AC/DC converter (352), power supply automatic switch (353) (ATS), low frequency Surface temperature of generation and output unit 354, switching element 355, quantum energy generating coils 521 and 522, PWM (Pulse Width Modulation) control method and pulse frequency modulation PFM (pulse frequency modulation) and pulse frequency (Density) control (PDM), pulse repetition rate control (PRR) function is built-in control unit 356, a fifth power supply 350 consisting of a magnetic field detection sensor (356a); and
  • flexography, screen printing, offset printing, web grabber, inkjet printing, and any one printing method are selected from among dry printing methods to select a cusp coil, a Helm Heltz coil , gradient saddle coil, uniform saddle coil, toroidal coil, trigger coil, zigzag coil (top and bottom, left and right), extension coil, motor stator shape coil, square coil, RF coil, toroidal coil, Tesla coil ( Tesla coil), Mobius Coil, Caduceus Coil, Rogoski coil shape, and any one coil shape from a combination of these shapes is selected and printed with a pre-prepared conductive ink and a first power supply 310, a second power supply 320, and a third power supply 330 for supplying power to the quantum energy generating coil and the quantum energy generating coil manufactured by the first method 210 of drying.
  • a first quantum energy generating device consisting of a power supply 300 selected from among a fourth power supply 340 , a fifth power supply 350 ,
  • flexography, screen printing, offset printing, web grabber, inkjet printing, and dry printing are selected by any one of the printing methods to select a cusp coil, a Helm Heltz coil. , gradient saddle coil, uniform saddle coil, toroidal coil, trigger coil, zigzag coil (top and bottom, left and right), extension coil, motor stator shape coil, square coil, RF coil, toroidal coil, Tesla coil ( Tesla coil), Mobius coil, Caduceus coil, Rogoski coil shape, and any one coil shape from a combination of these shapes is selected and used as a conductive ink prepared in advance.
  • flexography, screen printing, offset printing, web grabber, inkjet printing, and any one printing method are selected from among dry printing methods to select a cusp coil, a Helm Heltz coil , gradient saddle coil, uniform saddle coil, toroidal coil, trigger coil, zigzag coil (top and bottom, left and right), extension coil, motor stator shape coil, square coil, RF coil, toroidal coil, Tesla coil ( Tesla coil), Mobius coil, Caduceus coil, Rogoski coil shape, and any one coil shape from a combination of these shapes is selected and used as a conductive ink prepared in advance.
  • a cusp coil a Helm Heltz coil , gradient saddle coil, uniform saddle coil, toroidal coil, trigger coil, zigzag coil (top and bottom, left and right), extension coil, motor stator shape coil, square coil, RF coil, toroidal coil, Tesla coil ( Tesla coil), Mobius coil, Caduceus coil, Rogoski coil shape, and any one coil shape from a combination of these shapes is
  • any one printing method among the fourth material 140 and the fourth material 140 on the surface of the surface flexography, screen printing, offset printing, web grabber, inkjet printing, and dry printing, cusp coil, Helm Heltz Coil, gradient saddle coil, uniform saddle coil, toroid coil, trigger coil, zigzag coil (top and bottom, left and right), extension coil, motor stator shape coil, square coil, RF coil, toroidal coil, Tesla coil Conductive ink prepared in advance by selecting any one coil shape from among (Tesla coil), Mobius coil, Caduceus coil, (Caduceus coil), Rogoski coil shape, and a combination of these shapes
  • any one of flexography, screen printing, offset printing, web grabber, inkjet printing, and dry printing is selected, and the cusp coil, Helm Heltz coil , gradient saddle coil, uniform saddle coil, toroidal coil, trigger coil, zigzag coil (top and bottom, left and right), extension coil, motor stator shape coil, square coil, RF coil, toroidal coil, Tesla coil ( Tesla coil), Mobius coil, Caduceus coil, Rogoski coil shape, and any one coil shape from a combination of these shapes is selected and used as a conductive ink prepared in advance.
  • the cusp coil Helm Heltz coil , gradient saddle coil, uniform saddle coil, toroidal coil, trigger coil, zigzag coil (top and bottom, left and right), extension coil, motor stator shape coil, square coil, RF coil, toroidal coil, Tesla coil ( Tesla coil), Mobius coil, Caduceus coil, Rogoski coil shape, and any one coil shape from a combination of these shapes is selected and used as a conductive ink
  • flexography, screen printing, offset printing, web grabber, inkjet printing, and any one printing method are selected from among dry printing methods, and cusp coil, Helm Heltz coil , gradient saddle coil, uniform saddle coil, toroidal coil, trigger coil, zigzag coil (top and bottom, left and right), extension coil, motor stator shape coil, square coil, RF coil, toroidal coil, Tesla coil ( Tesla coil), Mobius coil, Caduceus coil, Rogoski coil shape, and any one coil shape from a combination of these shapes is selected and used as a conductive ink prepared in advance.
  • cusp coil Helm Heltz coil , gradient saddle coil, uniform saddle coil, toroidal coil, trigger coil, zigzag coil (top and bottom, left and right), extension coil, motor stator shape coil, square coil, RF coil, toroidal coil, Tesla coil ( Tesla coil), Mobius coil, Caduceus coil, Rogoski coil shape, and any one coil shape from a combination of these shapes is selected and used as a conductive
  • flexography, screen printing, offset printing, web grabber, inkjet printing, and dry printing method are selected to select any one printing method, such as a cusp coil, a Helm Heltz coil , gradient saddle coil, uniform saddle coil, toroidal coil, trigger coil, zigzag coil (top and bottom, left and right), extension coil, motor stator shape coil, square coil, RF coil, toroidal coil, Tesla coil ( Tesla coil), Mobius coil, Caduceus coil, Rogoski coil shape, and any one coil shape from a combination of these shapes is selected and used as a conductive ink prepared in advance.
  • any one printing method such as a cusp coil, a Helm Heltz coil , gradient saddle coil, uniform saddle coil, toroidal coil, trigger coil, zigzag coil (top and bottom, left and right), extension coil, motor stator shape coil, square coil, RF coil, toroidal coil, Tesla coil ( Tesla coil), Mobius coil, Caduceus coil, Rogoski coil shape, and any one coil shape
  • the first power supply 310, the second power supply 320, and the third power supply 330 supplying power to the quantum energy generating coil and the quantum energy generating coil produced by the seventh method 270 of printing and drying.
  • flexography, screen printing, offset printing, web grabber, inkjet printing, and dry printing method are selected to select any one printing method, such as a cusp coil, a Helm Heltz coil , gradient saddle coil, uniform saddle coil, toroidal coil, trigger coil, zigzag coil (top and bottom, left and right), extension coil, motor stator shape coil, square coil, RF coil, toroidal coil, Tesla coil ( Tesla coil), Mobius coil, Caduceus coil, Rogoski coil shape, and any one coil shape from a combination of these shapes is selected and used as a conductive ink prepared in advance.
  • any one printing method such as a cusp coil, a Helm Heltz coil , gradient saddle coil, uniform saddle coil, toroidal coil, trigger coil, zigzag coil (top and bottom, left and right), extension coil, motor stator shape coil, square coil, RF coil, toroidal coil, Tesla coil ( Tesla coil), Mobius coil, Caduceus coil, Rogoski coil shape, and any one coil shape
  • the first power supply 310, the second power supply 320, the third power supply 330, the fourth power supply 340, the fifth power supply for supplying power to the quantum energy generating coil and the quantum energy generating coil A 9a quantum energy generator 379a consisting of a power supply 300 selected from among a supply 350, a sixth power supply 360, and a battery (not shown); and
  • One material is selected and an adhesive is applied on the surface of the selected material, and then polyimide, PET (polyethyleneterephthalate), PMMA (polymethyl methacrylate), PDMS (polymethylsiloxane), polyester film, polyethylene film, polypropylene film , Select any one material from the PVC film, and apply a conductive solution to one or both surfaces of the selected material using inkjet, flexographic, and gravure offset printing methods to input the solenoid coil and toroid coil into the control unit (micom) of the printing machine , cusp coil, helm-heltz coil, gradient saddle coil, uniform saddle coil, toroid coil, trigger coil, zigzag coil (up and down, left and right), extension coil, motor stator coil, square coil, RF coil ,Troidal coil, Tesla coil, Mobi
  • the first material 110, the second material 120, the third material 130, the fourth material 140, the fifth material 150, the sixth material 160, the seventh material 170, the third material 8 It is composed of a transparent substrate (1), a first electrode (2), an electroluminescent layer (3), and a second electrode (4) after a certain area adhesive is applied on the surface of the 8 material 180 on a selected material plane.
  • the first electrode 2 is formed in the form of a stripe in the form of a quantum energy generating coil on the transparent substrate 1
  • the organic electroluminescent layer 3 is formed on the first electrode 2
  • the second electrode 4 is formed in the form of a stripe in the form of a quantum energy generating coil, and the first electrode 2 and the second electrode 4 are in the form of a stripe.
  • the shape of the quantum energy generating coil formed by Shaped Coil, Motor Stator Coil, Square Coil, RF Coil, Troidal Coil, Tesla Coil, Mobius Coil, Caduceus Coil, Rogoski Coil coil) shape and a combination of these shapes are selected, and the winding direction of the selected quantum energy generating coil is counterclockwise or clockwise.
  • the third power supply 330, the fourth power supply 340, the fifth power supply 350, the sixth power supply 360, any one of the battery (not shown) is selected as a power supply 300 9d quantum energy generating device (379d) configured;
  • the prepared conductive ink is printed and dried in a selected quantum energy generating coil shape using a printing machine to form a quantum energy generating coil (first and second quantum energy generating coil), and a plurality of materials in which the quantum energy generating coil is formed are used.
  • the first space is partitioned, and a second space with reduced volume is created by separating the first space by a certain distance.
  • a second space with reduced volume is created by separating the first space by a certain distance.
  • a sealed glass tube 401, a thermal electron emitting cathode 404 having a filament installed on the left side of the glass tube, a power supply 402 for supplying DC power to the cathode 404, and the cathode 404 are spaced apart by a certain distance
  • a high voltage power supply 411 for applying a high voltage to the first anode 413 and a predetermined area on one side of the lower side of the sealed glass tube 401
  • a second anode 423 made of a material such as rhodium is installed in an opening opened by
  • a quantum energy emitting layer 424 made of a material such as beryllium is installed on the external exposed surface, and power is supplied to the cathode 404 through a power supply 402, and the first anode power supply 411 Connect the lead wire 412 connected to the first anode 413 to the + terminal on the output side of the A 2-1 quantum energy generator 400A
  • the gate electrode 443 is installed in a shape that embraces the gate electrode 443, and the first anode 435 is installed at the center of the inner side of the sealing glass tube 437 opposite to the gate electrode 443, and the first anode 435 It is installed on the X-ray target plate 436 in the center of the right inclined surface.
  • the second anode 453 is installed on the sealing glass tube 437 vertically projected downward to the target plate 436 installed on the inclined surface of the first anode 435, and the second anode 453 is surfaced on the surface.
  • a quantum energy dissipation layer 454 is provided.
  • a first power supply 431 for applying a high voltage to the cathode 433 and the first anode 435 through a conductive wire is installed spaced apart from the left side of the sealing glass tube by a predetermined distance, and the gate electrode is spaced in the downward direction.
  • a second power supply 441 for supplying power to the 443 is installed, the output side of the first power supply 431 and the second power air 441 -terminal by common wiring to the first power supply 431 and a bias circuit between the second power supply air 441 and the second power supply air 441.
  • a third power supply 451 for applying a high voltage to the second anode 453 is installed at a distance from the second power supply 441 in the downward direction.
  • a second braking radiation constituting a bias circuit between the second power supply 441 and the third power supply 451 by common wiring the -terminal of the output side of the second power supply 441 and the third power supply 451 2-2 quantum energy generating device 430 of the type; is composed of a second quantum energy generating device (400B) consisting of.
  • the second is a cross-sectional view showing the type of material printed in the form of a quantum energy generating coil on the surface.
  • Commercially available thin white paper such as kapyeong paper, gyeonyang paper, small wall paper, diagonal paper, inner wall paper, etc., which are thick and strong papers, which are made of two or more layers of paper, gakji, taejangji, yeongchangji, daejangji, nong Seon paper, nap paper, saffron paper, exterior paper, heijong paper, sheet paper of slightly thicker paper, etc., regenerated paper such as insect repellent paper, hwanhon paper, jade paper, red paper, yellow paper, blue paper, dark blue paper,
  • the first material 110 which is a type of paper such as colored paper, corrugated paper, such as blue paper; and
  • the second material 120 which is a non-conductive material such as PVC, PE, PC, acrylic, Bakelite, glass fiber molded foam (FRP), Teflon, and urethane; and
  • the third material 130 which is a metal material such as a panel to which a loy, an insulating material or a heat insulating material is attached;
  • the fourth material 140 such as general plywood, pine plywood, core plywood, larch plywood, MDF, particle board, etc. wood plywood; and
  • the fifth material 150 which is an inorganic material such as concrete, tile, block, brick, board, stone (marble exterior material, etc.);
  • a sixth material 160 such as vegetable fiber, vegetable fiber, mineral fiber, regenerated fiber, synthetic fiber, inorganic fiber.
  • a seventh material 170 such as blocking glass for X-ray blocking, heat insulation, and prevention of condensation;
  • any one of the eighth material 180 of a transparent material such as polyimide, PET (polyethyleneterephthalate), PMMA (polymethyl methacrylate), PDMS (polymethylsiloxane), polyester film, polyethylene film, polypropylene film, PVC film, etc. is selected and used.
  • a transparent material such as polyimide, PET (polyethyleneterephthalate), PMMA (polymethyl methacrylate), PDMS (polymethylsiloxane), polyester film, polyethylene film, polypropylene film, PVC film, etc.
  • the material for forming the quantum energy generating coil by printing the conductive ink on the surface in the shape of a quantum energy generating coil using a printing machine is the first material 110, the second material 120, the third material 130, the second material. It is not limited to the 4th material 140, the 5th material 150, the 6th material 160, the 7th material 170, and the 8th material 180. Any material not described above may be conductive to the surface. If ink can be printed in the shape of a quantum energy generating coil using a printing machine, all can be used.
  • 3 and 4a, 4b, 4c, 4d, 4e, 4f, 4g, 4h, 4i, 4j, 4k, 4l, 4m, 4n, 4o, 4p is a cross-sectional view showing various shapes of quantum energy generating coils printed or attached to the surfaces of first to eighth materials.
  • FIG. 3 is a cross-sectional view showing the shape of quantum energy generating coils (first and second quantum energy generating coils) implemented in the shape of a cusp coil.
  • first and second quantum energy generating coils implemented in the shape of a cusp coil.
  • the first quantum energy generating coil a fixed number of turns is wound on the circumferential surface of the lower side in a clockwise or counterclockwise direction, and the second quantum energy generating coil is spaced apart from the first quantum energy generating coil by a certain distance in the upper direction. It has a shape in which a predetermined number of turns are wound counterclockwise or clockwise on the circumferential surface of the upper side, and the winding directions of the first and second quantum energy generating coils are opposite to each other.
  • Figure 4a is a cross-sectional view showing the shape of a quantum energy generating coil (first, second quantum energy generating coil) implemented in the shape of a Helm-Heltz coil.
  • the first quantum energy generating coil is wound in a clockwise or counterclockwise direction on the circumferential surface of one side on the left side
  • the second quantum energy generating coil is spaced apart from the first quantum energy generating coil by a predetermined distance to the right and the right side It has a shape in which a predetermined number of turns are wound counterclockwise or clockwise on the circumferential surface of one side, and the winding directions of the first and second quantum energy generating coils are opposite to each other.
  • FIG. 4B is a cross-sectional view showing the shape of a quantum energy generating coil (first and second quantum energy generating coil) implemented in a gradient saddle coil shape.
  • the first coil shape is a horizontal shape having a certain diameter
  • a quantum energy generating coil line that is printed from the left end of the upper side of the outer surface area of the semi-cylinder to the right end in the circumferential direction is 1/2 the area of the entire circumferential surface area of a section at a certain distance from the outer surface of the vertical cylinder.
  • the coil After extending the coil wire from the upper one side of the right end to the lower end, and extending the coil wire from the right end to the left end, and then extending the coil wire from the lower end to the upper end at a certain distance in the downward direction (first winding), the coil is extended from the left to the right end at a distance from the left end to the left at a predetermined interval in the downward direction, and again wound at a distance from the first winding from the top to the bottom direction, and again from the right side It has a shape of winding in a clockwise direction to the center by extending the coil upward from the left side to the left side (second winding).
  • the shape of the second quantum energy generating coil is winding so that the winding direction of the first quantum energy generating coil is in the opposite direction.
  • FIG. 4c is a cross-sectional view showing the shape of a quantum energy generating coil (first and second quantum energy generating coil) implemented in a uniform saddle coil shape.
  • the first coil shape has an area of 1/2 of the total circumferential surface area of a section at a certain distance from the outer surface of a horizontal or vertical cylinder having a predetermined diameter, that is, the upper left end of the outer surface area of the semi-cylindrical column
  • the printed quantum energy generating coil wire to the right end, extend the coil wire from the upper one side to the lower end of the right end, extend the coil wire from the right end to the left end, and then extend the coil from the lower end to the upper end
  • the coil is extended from the left to the right end to the left at a predetermined interval in the downward direction with the first winding, and again from the top to the bottom
  • the winding is wound in a clockwise direction to the center by winding the
  • the shape of the second quantum energy generating coil is winding so that the winding direction of the first quantum energy generating coil is in the opposite direction.
  • 4D is a cross-sectional view showing the shape of a quantum energy generating coil (first and second quantum energy generating coil) implemented in a toroidal coil shape. It is a shape wound in a clockwise or counterclockwise direction in a helical coil method in the circumferential direction of the outer surface of the shape,
  • the second quantum energy generating coil has a shape wound in the opposite direction to the winding direction of the first quantum energy generating coil, and is wound counterclockwise or clockwise in a helical coil shape in the circumferential direction of the ring-shaped outer surface having a certain diameter. shape to be,
  • FIG. 4e is a cross-sectional view showing the shape of a quantum energy generating coil (first, second quantum energy generating coil) implemented in the shape of a trigger coil. As shown in Fig., it has a shape in which a predetermined number of turns are wound in a clockwise or counterclockwise direction from the outer edge to the center on the disk, and the second quantum energy generating coil is in the opposite direction to the winding direction of the first quantum energy generating coil. 1 It is a shape in which a certain number of turns are wound in the counterclockwise or clockwise direction inside or outside the concentric circle of the quantum energy generating coil.
  • FIG. 4f is a cross-sectional view showing the shape of a zigzag-shaped quantum energy generating coil (first, second quantum energy generating coil).
  • first, second quantum energy generating coil the shape of the first quantum energy generating coil is shown in FIG. 4f.
  • a predetermined number of turns are wound in a zigzag direction in the longitudinal or transverse direction as described above, and the shape of the second quantum energy generating coil is opposite to the winding direction of the first quantum energy generating coil and zigzag in the longitudinal or transverse direction. It is a shape in which a certain number of turns are wound in the direction.
  • Figure 4g is a cross-sectional view showing the shape of the quantum energy generating coil (first, second quantum energy generating coil) implemented in the shape of the extension coil.
  • the shape of the extension coil is the zigzag shown in Fig. 4f.
  • the first extension coil shape is a zigzag coil shape wound in a circle to have a certain diameter
  • the second extension coil shape is a zigzag shape inside or outside the concentric circle of the first extension coil shape. It is a shape wound in a circle so as to have a certain diameter as a coil, and it is a shape wound so that the direction of current flow is opposite to each other.
  • Figure 4h is a cross-sectional view showing the shape of a quantum energy generating coil (first, second quantum energy generating coil) implemented in the shape of a stator-type coil of an electric motor.
  • a quantum energy generating coil first, second quantum energy generating coil
  • the shape of the second quantum energy generating coil is that the plurality of first quantum energy generating coils are interviewed
  • It is a circular shape having a certain diameter formed by one side of a plurality of coils in or in a concentric circle formed by the face-to-face, and the shape is formed so that the direction of current flow is opposite to each other in the first and second quantum energy generating coils.
  • 4I is a cross-sectional view showing the shape of a quantum energy generating coil (first and second quantum energy generating coil) implemented in a flat square or edge wise voice coil shape.
  • the shape of the prismatic or edge wise voice coil is similar to the shape of the cusp coil shown in FIG. 3, and the shape of the first quantum energy generating coil is in the circumferential direction of the outer surface of a horizontal cylinder having a certain diameter. A fixed number of turns is wound clockwise or counterclockwise with winding shape.
  • 4J is a cross-sectional view showing the shape of a quantum energy generating coil (first and second quantum energy generating coil) implemented in a toroidal coil shape.
  • the first quantum energy generating coil shape is constant After winding a certain number of turns in a clockwise or counterclockwise direction in the circumferential direction of the outer surface of the ring with a certain diameter in a concentric circle shape of distance, a certain number of turns are wound in a counterclockwise or clockwise direction at a certain distance in the circumferential direction of the outer surface of the ring After being separated by a certain distance, a plurality of coils are wound, and the shape of the second quantum energy generating coil is a concentric circle shape of a certain distance, and a certain diameter is constant in the circumferential direction of the outer surface of the ring in a counterclockwise or clockwise direction.
  • the plurality of coils are wound by a certain distance spaced apart from each other by a certain distance after winding a certain number of turns in a clockwise or counterclockwise direction in the circumferential direction of the outer surface of the ring, and the first and second quantum energy are generated Make sure that the direction of current flow in the coil is opposite to each other.
  • 4k is a cross-sectional view showing the shape of a quantum energy generating coil (first, second quantum energy generating coil) implemented in a solenoid coil shape.
  • the solenoid coil shape is a spring shape or a helical shape and In the circumferential direction of the outer surface of the center line of a horizontal cylinder having a similar shape and a constant diameter, the first quantum energy generating coil is wound with a fixed number of turns in the clockwise or counterclockwise direction, and the second quantum energy coil is the first quantum energy generating coil and In such a way that the winding directions are opposite to each other, a predetermined number of turns are wound counterclockwise or clockwise on the circumferential surface, and the current flow directions in the first and second quantum energy generating coils are opposite to each other.
  • Figure 4l is a cross-sectional view showing the shape of a quantum energy generating coil (first, second quantum energy generating coil) implemented in a deformed RF coil shape.
  • the first quantum energy generating coil shape is A plurality of coils with a certain number of turns are wound on the outer surface of a rectangular or oval shape having a certain area in a clockwise or counterclockwise direction at intervals on a concentric circle.
  • the winding directions of adjacent coil groups are opposite to each other
  • the shape of the second quantum energy generating coil is a plurality of shapes in which a predetermined number of coils are wound in a counterclockwise or clockwise direction on the outer surface of a rectangular or oval shape having a predetermined area at intervals on a concentric circle. is formed.
  • the winding directions of the first and second quantum energy generating coils are opposite to each other.
  • 4M is a cross-sectional view showing the shape of the first and second quantum energy generating coils implemented in the shape of a Tesla coil.
  • the shape of the Tesla coil is similar to the shape of the solenoid coil, and the outer circumferential surface of the cylinder It is wound with a certain number of turns in a clockwise or counterclockwise direction along the It can be mainly installed on the surface of the material inside or outside of a special cylindrical space.
  • 4N is a cross-sectional view showing the shape of the first and second quantum energy generating coils implemented in the shape of a Mobius coil.
  • the coil wire is wound in a figure 8 or infinity ( ⁇ ), and is wound with a certain number of turns in the clockwise or counterclockwise direction at intervals from each other.
  • FIG. 4O is a cross-sectional view showing the shape of the first and second quantum energy generating coils implemented in the shape of a Caduceus coil.
  • the shape of the Caduceus coil is similar to the shape of the Mobius coil.
  • Two coil wires or one coil wire in the circumferential direction of the external surface of an imaginary cylinder are wound in a figure 8 or infinity shape ( ⁇ ), and the point of intersection of the line and the line is evenly spaced from each other on the left or right side of the external surface of the imaginary cylinder It is a shape in which a certain number of turns are wound in a clockwise or counterclockwise direction.
  • Figure 4p is a cross-sectional view showing the shape of the first and second quantum energy generating coils implemented in the shape of a Rogowski coil.
  • the Rogowski coil shape is a ring shape, and the wire at the bottom is circular. It is wound or bent so that the two ends are spaced apart from each other at the connection or intersection point, and the two coupling brackets are fastened, and the wire is drawn out from the center of the fastening part to the right or left.
  • the Rogowski coil shape is a ring shape
  • the wire at the bottom is circular. It is wound or bent so that the two ends are spaced apart from each other at the connection or intersection point, and the two coupling brackets are fastened, and the wire is drawn out from the center of the fastening part to the right or left.
  • the shape of the quantum energy generating coil is shown in Figs. 3 and 4A, 4B, 4C, 4D, 4E, 4F, 4G, 4H, 4I, 4J, 4K, 4L, 4M, Fig. It is not limited to the shape shown in 4n, 4o, and 4p, and various coil shapes such as polaroid coils (not shown), squares, polygons, overlapping ovals and circles can be selected and used.
  • the conductive silver ink which is a material 1a, printed on a plane of first to eighth materials.
  • the conductive silver ink The composition and properties have a viscosity (cp) (Viscosity) in the range of 12 to 15 cp, a silver content (%) (Silver Content) of 10%, a resistance ( ⁇ cm) (Resistvity) of ⁇ 10 -4 ( ⁇ cm), and adhesion (B) Using AGS102CO with (Adhesion) > 4, or with a viscosity (cp) (Viscosity) in the range of 10 to 12 cp, a silver content (%) (Silver Content) of 5%, and resistance ( ⁇ cm) (Resistvity) AGS105CO with this ⁇ 10 -4 ( ⁇ cm) and adhesion (B) >4 can be used.
  • Table 1 shows the characteristics, functions, characteristics, properties of the conductive silver ink (Properties of silver ink).
  • Non-nanoparticle complex form with organic ligand and metal ion
  • 6A is a table showing the composition of conductive copper ink, which is a material 1b, printed on the plane of first to eighth materials.
  • the viscosity (cp) is in the range of 26 to 30cp
  • the copper content (%) (copper content) of the conductive copper ink is 9-11%
  • the resistance ( ⁇ cm) (Resistvity) is ⁇ 10 -3 ( ⁇ cm)
  • use CUS101cd with adhesion >4 or have a viscosity (cp) (Viscosity) in the range of 20 to 25cp
  • a copper content (%) (copper Content) Use CUS102cd with 9-11%, resistance ( ⁇ cm) (Resistvity) ⁇ 10 -3 ( ⁇ cm), and adhesion (B) >4;
  • the viscosity (cp) (Viscosity) is in the range of 15 to 20 cp, the copper content (%) (copper Content) of the conductive copper ink is 3-5%, and the resistance ( ⁇ cm) (Resistvity) is ⁇ 10 - It is 3 ( ⁇ cm), and any one of CUS131cd products with an adhesive force (B) (Adhesion) of >4 can be selected and used.
  • Table 2 shows the properties of conductive copper ink, functions, and properties of copper ink.
  • Figure 6b is a cross-sectional view showing the composition of the conductive silver nanowire ink (Silver nanowire ink) as the first material 1c printed on the plane of the first to eighth materials.
  • the silver nanowire ink (Silver nanowire ink) ink) has a viscosity (cp) (Viscosity) of ⁇ 20, a solid content (%) (Solid Content) of 0.1-1.0 %, a resistance ( ⁇ cm) (Resistvity) of 40-200 ( ⁇ cm), and , AGNW 100 Series products with a drying temperature of 150 to 250 degrees Celsius can be used.
  • Table 3 shows the characteristics, functions, and characteristics of the nanowire ink (Silver nanowire ink) (Properties of copper ink).
  • Dispersion solution in which silver nanowires with a length of .20-30 ⁇ m and a diameter of 25-40 nm are dispersed in various solvents.
  • 6c is a cross-sectional view showing the manufacturing step of a conductive silver ink composition, which is a 1d material, printed on the plane of the first to eighth materials.
  • An amine compound selected from among amine compounds such as alkylamine, ethylenediamine, and butylamine; 45wt%
  • Short-chain carboxylic acid such as formic acid selected from the group consisting of formic acid, acetic acid, pentanoic acid and butyric acid; 24.1 wt%
  • Adhesion promoter such as hydroxyethyl cellulose; 1.4 wt%
  • Step 1 4.5wt% of the total weight of an amine compound selected from among amine compounds such as alkylamine, ethylenediamine, and butylamine is added to the reactor (not shown) and stirred with a stirrer (not shown).
  • an amine compound selected from among amine compounds such as alkylamine, ethylenediamine, and butylamine is added to the reactor (not shown) and stirred with a stirrer (not shown).
  • Step 2 Add 11-15 wt% of silver powder or flakes to the reactor and dissolve the powder or flakes while stirring.
  • Step 3 If the viscosity of the solution is higher than the preset standard, add alcohol or ester in small portions within the range of 51-55 wt% of the total weight to adjust the viscosity.
  • Step 4 An adhesion promoter such as hydroxyethyl cellulose is stirred while adding 1.4 wt% of the total weight.
  • the adhesion promoter is a first material 110, a second material 120, a third material 130, a fourth material 140, a fifth material 150, a sixth material 160, a seventh material ( 170), any one of the eighth material 180 promotes adhesion of the conductive ink printed on the surface of the selected material.
  • Step 5 Formic acid, acetic acid, pentanoic acid, a short-chain carboxylic acid selected from the group consisting of butyric acid, such as formic acid, 24.1 wt% of the total weight is added and stirred for 2 hours to prepare a conductive ink .
  • butyric acid such as formic acid
  • the silver powder can be purchased from various commercial suppliers, such as Ames Goldsmith Corporation, Glance Falls, New York, USA, and Inframat Adenced Materials, Inc., Manchester, Connecticut, USA.
  • a mixture of 1100-25 commercially available from Ames, and a mixture of silver flakes of different sizes, such as 47MR-23S, available from Inframat Adenced Materials, Manchester, Connecticut, USA may be used.
  • have. D50 and D95 are industry-recognized names for silver with specific specific particle sizes.
  • D50 has approximately 50% of the silver particles below a certain size
  • D95 has approximately 95% silver particles below a certain size.
  • the amine compounds, short chain carboxylic acids, adhesion promoters such as hydroxyethylcellulose, etc. can be obtained from commercial sources such as Aldrich Chemical Co. (Milwaukee, Wl, USA) and Fisher Scienfic (Pittsburgh, PA, USA). .
  • the silver powder can be substituted with a metal powder selected from among copper powder, carbon powder, and platinum powder.
  • the conductive ink is not limited to 1a, 1b, 1c, and 1d materials. If conductivity, adhesive strength, durability, etc. are secured, a conductive solution having a different composition may be used instead.
  • 6D is a table showing the types of conductive metals as a second material attached to the plane of the first to eighth materials.
  • metal has malleability, has an inherent luster of metal, and is electrically It is a generic term for materials with conductivity.
  • metal is a conductor that transmits heat and electricity well, is opaque, has the characteristic luster of metal, and has the characteristics of being in a solid state with a crystal structure at room temperature. In addition, it can be spread thinly like a plate, and has properties that can be pulled as thinly as a thread, that is, malleability and ductility.
  • Metals that can be used in the present invention include beryllium and magnesium of group 3.2 and 2 on the periodic table of elements, neodymium of group 3.3 and 3, samarium, gadolinium, and lutetium of group 3.4.4 titanium, zirconium, hafnium, and leaderpodium of group 3.5.5 Tantalum Molybdenum of group 3.6.6, tungsten Manganese of group 3.7.7, technetium Iron, ruthenium of group 3.8.8, iridium of group 3.9.9 Nickel, palladium, platinum of group 3.10.10.
  • 6e is a table showing the type of the coated wire, which is the third material of the quantum energy generating coil wound on the plane of the first to eighth materials. Referring to the attached table, the type of the coated conductive wire is
  • Classification code A, A.A, ACSR wire such as annealed copper wire (A), soft aluminum wire (A-AI), steel core aluminum stranded wire (ACSR), steel core aluminum conductor polyethylene wire for pull-in (ACSR-DV),
  • Copper vinyl wire for bind BCV
  • iron vinyl wire for bind BGV
  • butyl rubber insulated polyethylene sheath cable BE
  • butyl rubber insulated polyethylene sheath cable BL
  • butyl rubber insulated soft sheath chloroprene sheath cable BN
  • Classification code of Class 2 butyl rubber insulated chloroprene cabtyre cable 2BNCT
  • Classification code CA such as steel-clad aluminum wire (CA), polyethylene insulated vinyl sheath cable (round shape) (CB-EV) for direct sale in concrete, cross-linked polyethylene insulated polyethylene sheath cable (CE), copper-clad steel wire (CS),
  • CA steel-clad aluminum wire
  • CB-EV polyethylene insulated vinyl sheath cable
  • CE cross-linked polyethylene insulated polyethylene sheath cable
  • CS copper-clad steel wire
  • Classification code FF FL wire for indoor wide cord, vinyl wire for fluorescent discharge lamp,
  • Classification code for steel core a-type aluminum alloy wire, a-type aluminum alloy wire, etc.
  • Classification code MI cable for inorganic insulated cables (mineral insulated cables), etc.
  • Butyl rubber insulated wire for high-voltage cut-down Polyethylene insulated wire for high-voltage cut-down Classification code PDE, PDB wire,
  • Classification code TA TF wire for tin-plated annealed copper wire, indoor two twisted annealed wire, etc.
  • WFF and WRF wires Use at least one type of wire among WFF and WRF wires, which are classified as indoor moisture-proof large cord, indoor moisture-proof round cord, etc.
  • any one of the diameters ranging from 100 ⁇ m to 5 cm is selected and used.
  • a wire-type shape memory alloy can be used instead of the coated conductive metal wire. Since the wire-type shape memory alloy can expand when power is supplied from the power supply, it can be wound on the outer surface of the rod-shaped material or wound inside the cylinder. use.
  • FIG. 7 is a view showing the steps of forming a quantum energy generating coil by printing and drying the conductive ink in the form of a quantum energy generating coil on the plane of the first material
  • the first method 210 of forming a quantum energy generating coil in the shape of a quantum energy generating coil with conductive ink on the surface of the first material 110 is
  • Thin white paper is Changho paper, Sago paper, Yusam paper, Taemi basin, Sannaeji, Wansanji, Kapyeongji, Gyeonyang paper, etc.
  • It is inner wallpaper
  • the thick paper is Taejangji, Youngchangji, Daejangji, Nongseonji, Ipmoji, Saefuji, Exterior paper, Hejongjungji, Shijiji, and Hwanhonji, which is recycled paper such as insect repellent paper, It is possible to select any one material from among colored paper such as jade paper, red paper, yellow paper, blue paper, dark blue paper, sub-blue paper, and corrugated paper.
  • Step 2 Conductive ink selection
  • Conductive silver ink which is the material 1a shown in FIG. 5;
  • Conductive copper ink which is a material 1b shown in FIG. 6a,
  • Conductive silver nanowire ink (Silver nanowire ink), which is the 1c material shown in FIG. 6b;
  • Any one type of conductive ink is selected from among the conductive silver ink compositions, which are the 1d materials shown in FIG. 6c.
  • the type of the conductive ink forming the shape of the quantum energy generating coil is a conductive silver ink, a conductive copper ink, a nanowire ink, and a conductive silver ink composition. It is not limited to, and is merely an example, and any conductive ink having similar or higher quality such as conductivity, physicochemical properties, workability, dryness, adhesiveness, etc. of the exemplified conductive ink can be used.
  • Any one material is selected from copper, aluminum, tin, stainless steel (STS304), and coated steel plate in advance using the Scrayable Tech technology and the stencil technique, and the selected material Using laser-based model picking technology, cusp coil, helm-heltz coil, gradient saddle coil, uniform saddle coil, toroid coil, trigger coil, zigzag coil (up and down, left and right), extension coil, motor stator shape Coil, square coil, RF coil, toroidal coil, Tesla coil, Mobius coil, Caduceus coil, Rogoski coil shapes and combinations of these shapes Mark in a selected shape from among the coil shapes, or place a perforated model frame on the model frame and apply conductive ink on the model frame by flexography, screen printing, offset printing, web grabber, inkjet printing, or dry printing.
  • the model frame is removed.
  • an adhesive special glue
  • the quantum energy generating coil is printed with a metal selected from gold foil, copper foil, silver foil, etc. After attaching it to the surface, it is completed by peeling off the extra paper except for the quantum energy generating coil part from the transfer paper.
  • Sprayable Tech (Sprayable Tech) technology is a technology developed by researchers at the Massachusetts Institute of Technology (MIT) in the United States. It is to make a form of interface (eg remote control for TV, light switch).
  • MIT Massachusetts Institute of Technology
  • the stencil technique is one of the design techniques and is a type of engraving technique derived from the meaning of printing letters. Draw on thick paper or film, dig a hole for the picture, or cut it out with a knife and put it on the desired place. Place it and use acrylic paint to rub it with a roller, or tap it with a plump, sharp-pointed brush, or paint with a brush to rotate the shape of the object and print it out.
  • Step 4 Drying step; Dry in a dryer (not shown) at a temperature in the range of 50 degrees to 150 degrees for 1 hour to 2 hours.
  • melamine formaldehyde resin MF
  • UF formaldehyde resin
  • UMF urea-melamine-formaldehyde resin
  • acrylic resin phenol-based resin
  • polyester A protective layer of the quantum energy generating coil can be formed by selecting any one kind of resin from among the resin and these mixed resins and spraying it on the printed quantum energy generating coil using a spray gun supplied with pneumatic pressure and drying it in a dryer. .
  • the eighth material 180 printed with the quantum energy generating coil on the transparent film after applying a special plate on the surface of the paper material without printing the quantum energy generating coil with a conductive ink liquid on the surface of the first material 110 can be attached
  • the number of quantum energy generating coils formed on the surface of one material may be one, or a plurality of quantum energy generating coils may be formed.
  • FIG. 8A is a schematic diagram illustrating a method of forming a quantum energy generating coil by printing a conductive ink on the surface of a second material in the form of a quantum energy generating coil.
  • the selected second material 120 The second method 220 of forming a quantum energy generating coil by printing and drying conductive ink on the surface in a selected quantum energy generating coil shape using a printing machine.
  • any one of the second materials of non-conductive materials such as PVC, PE, PC, acrylic, and Beck.
  • Step 2 Surface grinding step
  • Step 3 Washing step
  • a solvent such as ethyl alcohol or isopropyl alcohol to remove impurities on the surface.
  • Step 4 Conductive Ink Selection Step
  • Conductive silver ink which is the material 1a shown in FIG. 5;
  • Conductive copper ink which is a material 1b shown in FIG. 6a,
  • Conductive silver nanowire ink (Silver nanowire ink), which is the 1c material shown in FIG. 6b;
  • Any one type of conductive ink is selected from among the conductive silver ink compositions, which are the 1d materials shown in FIG. 6c.
  • the type of the conductive ink forming the shape of the quantum energy generating coil is a conductive silver ink, a conductive copper ink, a nanowire ink, and a conductive silver ink composition. It is not limited to, and is merely an example, and any conductive ink having similar or higher quality such as conductivity, physicochemical properties, workability, dryness, adhesiveness, etc. of the exemplified conductive ink can be used.
  • Step 5 Print Step
  • any one printing method among offset printing, web grabber, inkjet printing, and dry printing method select one type of material from non-conductive materials such as PVC, PE, PC, acrylic, and Bake, and apply it to the surface of the selected material. After printing with a thickness of 10 to 30 ⁇ m, the mold is removed.
  • an adhesive (special glue) is applied to the paper surface in advance, and a quantum energy generating coil is printed with a metal selected from gold foil, copper foil, silver foil, etc. After attaching it to the surface, it is completed by peeling off the extra paper except for the quantum energy generating coil part from the transfer paper.
  • the quantum energy generating coil instead of printing the quantum energy generating coil with a conductive solution (ink solution) on the surface of the second material, a special paper or adhesive is applied on the surface of the paper material, and then the 8th material printed with the quantum energy generating coil is attached to the transparent film.
  • a conductive solution ink solution
  • a special paper or adhesive is applied on the surface of the paper material, and then the 8th material printed with the quantum energy generating coil is attached to the transparent film.
  • Sprayable Tech (Sprayable Tech) technology is a technology developed by researchers at the Massachusetts Institute of Technology (MIT) in the United States. It is to make a form of interface (eg remote control for TV, light switch).
  • MIT Massachusetts Institute of Technology
  • the stencil technique is one of the design techniques and is a type of engraving technique derived from the meaning of printing letters. Draw it on thick paper or film, dig out the picture part, cut it out, or cut it out with a knife and put it on the desired place and place it on acrylic. Using paint, rubbing with a roller, tapping with a plump, sharp-pointed brush, or painting with a brush to rotate the shape of an object.
  • Step 6 Drying step
  • a dryer (not shown), it is dried for 1 hour to 2 hours at a temperature in the range of 50 degrees Celsius to 150 degrees Celsius.
  • melamine formaldehyde resin MF
  • UF formaldehyde resin
  • UMF urea-melamine-formaldehyde resin
  • acrylic resin phenol-based resin
  • polyester A protective layer of the quantum energy generating coil can be formed by selecting one kind of resin from among the resin and these mixed resins and spraying it on the printed quantum energy generating coil using a spray gun supplied with pneumatic pressure and drying it in a dryer. .
  • the number of quantum energy generating coils formed on the surface of one material may be one, or a plurality of quantum energy generating coils may be formed.
  • FIG. 8b is a schematic diagram showing a method of forming a quantum energy generating coil by printing a conductive ink on the surface of a third material in the form of a quantum energy generating coil.
  • the selected third material 130 The third method 230 of forming a quantum energy generating coil by printing and drying the conductive ink on the surface in a selected quantum energy generating coil shape using a printing machine is
  • Step 2 washing step
  • a solvent such as ethyl alcohol or isopropyl alcohol to remove impurities on the surface.
  • Conductive silver ink which is the material 1a shown in FIG. 5;
  • Conductive copper ink which is a material 1b shown in FIG. 6a,
  • Conductive silver nanowire ink (Silver nanowire ink), which is the 1c material shown in FIG. 6b;
  • Any one type of conductive ink is selected from among the conductive silver ink compositions, which are the 1d materials shown in FIG. 6c.
  • the type of the conductive ink forming the shape of the quantum energy generating coil is a conductive silver ink, a conductive copper ink, a nanowire ink, and a conductive silver ink composition. It is not limited to, and is merely an example, and any conductive ink having similar or higher quality such as conductivity, physicochemical properties, workability, dryness, adhesiveness, etc. of the exemplified conductive ink can be used.
  • Step 4 Print Step
  • any of thick paper, film (PVC, PE), copper, aluminum, tin, stainless steel (STS304), and coated steel plate in advance using the Scrayable Tech technology and the stencil technique One material is selected, and the selected material is used for model-picking technology using lasers to make cusp coils, Helm-Heltz coils, gradient saddle coils, uniform saddle coils, toroid coils, Maxwell coils, trigger coils, zigzag coils (up and down , left and right), extension type coil, motor stator type coil, square type coil, RF coil, toroidal coil shape, and any one coil shape from a combination of these shapes.
  • the model frame After printing with a thickness of 10 to 30 ⁇ m on the material surface by spraying conductive ink on the model frame, the model frame is removed, or the selected quantum energy generating coil shape is entered into the microcomputer for flexography, screen printing, offset printing, web scriber , Select any one printing method among inkjet printing and dry printing and print it on the surface of the material with a thickness of 10 to 30 ⁇ m.
  • an adhesive (special glue) is applied to the paper surface in advance, and a quantum energy generating coil is printed with a metal selected from gold foil, copper foil, silver foil, etc. After attaching it to the surface, it is completed by peeling off the extra paper except for the quantum energy generating coil part from the transfer paper.
  • Step 5 Drying Step
  • Dry in a dryer (not shown) for 1 hour to 2 hours at a temperature in the range of 50 degrees Celsius to 150 degrees Celsius.
  • a special plate or adhesive is applied on the surface of the paper material, and then attaching the 8th material printed with the quantum energy generating coil on the transparent film can do.
  • the number of quantum energy generating coils formed on the surface of one material may be one, or a plurality of quantum energy generating coils may be formed.
  • 8c is a schematic diagram showing a method of forming a quantum energy generating coil by printing a conductive ink on the surface of a fourth material in the form of a quantum energy generating coil.
  • the selected fourth material 140 The fourth method 240 of forming a quantum energy generating coil by printing and drying conductive ink on the surface in a selected quantum energy generating coil shape using a printing machine
  • Any one of the 4 materials such as general plywood, pine pine plywood, core plywood, larch plywood, MDF, particle board, etc. is selected and a plate with a certain thickness or a bar with a certain diameter is selected.
  • wood plywood such as general plywood, pine pine plywood, core plywood, larch plywood, MDF, and particle board using an electric sanding machine for woodworking.
  • Step 3 Washing Step
  • a solvent such as ethyl alcohol or isopropyl alcohol to remove impurities on the surface.
  • Step 4 Varnish application (resin) step
  • varnish After selecting any one type of varnish from among wood varnish for wood, oily varnish for wood, urethane varnish for wood, urethane varnish for wood, and wood varnish, subdivide the appropriate amount of varnish in a small container, add a solvent (thinner) to adjust the viscosity, and then apply pneumatic pressure. Using a used spray gun, the varnish is sprayed on the ground surface to have a certain thickness.
  • Step 5 Drying Step
  • Conductive silver ink which is the material 1a shown in FIG. 5,
  • Conductive copper ink which is a material 1b shown in FIG. 6a,
  • Conductive silver nanowire ink (Silver nanowire ink), which is a material 1c shown in FIG. 6b;
  • Any one type of conductive ink is selected from among the conductive silver ink compositions, which are the 1d materials shown in FIG. 6c.
  • the type of the conductive ink forming the shape of the quantum energy generating coil is a conductive silver ink, a conductive copper ink, a nanowire ink, and a conductive silver ink composition. It is not limited to, and is merely an example, and any conductive ink having similar or higher quality such as conductivity, physicochemical properties, workability, dryness, adhesiveness, etc. of the exemplified conductive ink can be used.
  • Step 7 Print Step
  • an adhesive (special glue) is applied to the paper surface in advance, and a quantum energy generating coil is printed with a metal selected from gold foil, copper foil, silver foil, etc. After attaching it to the surface, it is completed by peeling off the extra paper except for the quantum energy generating coil part from the transfer paper.
  • Step 8 Drying Step
  • Dry in a dryer (not shown) for 1 hour to 2 hours at a temperature in the range of 50 degrees Celsius to 150 degrees Celsius.
  • the 8th material printed with the quantum energy generating coil on the transparent film can be attached.
  • the number of quantum energy generating coils formed on the surface of one material may be one, or a plurality of quantum energy generating coils may be formed.
  • 8D is a schematic diagram showing a method of forming a quantum energy generating coil by printing a conductive ink on the surface of a fifth material in the form of a quantum energy generating coil.
  • the selected fifth material 150 A fifth method 250 of forming a quantum energy generating coil by printing and drying conductive ink on the surface in a selected quantum energy generating coil shape using a printing machine
  • the fifth material is a plate having a certain thickness or a bar having a certain diameter selected from among inorganic materials such as concrete, tiles, blocks, boards, stone (marble exterior materials, etc.).
  • an electric sander sand the surface of the cockcrete wall, the surface of the tile, or the surface of a stone (marble exterior material, etc.) to remove irregularities on the surface or make scratches to facilitate adhesion of the resin layer.
  • Step 2 Washing Step
  • a solvent such as ethyl alcohol or isopropyl alcohol to remove impurities on the surface (excluding tiles).
  • Step 3 Applying water-soluble resin or primer
  • Step 4 Preparation of conductive resin
  • the preparation of the conductive resin is based on 100 wt% of the total dry weight.
  • a binder selected from among acrylic polymer, polymetal methacrylate, styrene butadiene, vinyl acetate, polyamide, nitrocellulose, polyvinyl alcohol, starch, and the like; 30-50 wt%, and
  • Polyvinyl alcohol PVA
  • carboxyl methyl cellulose CMC
  • HMC hydroxy methyl cellulose
  • acrylic copolymer gelatin, alginate, soybean, protein, galactomannan, nano cellulose, polysaccharide Thickeners such as lide, crosslinked polyacrylate, polyvinylpidolidol, and hydrophobic ethoxylated urethane; 5 to 13wt%
  • fine metal powders having conductivity and oxygen absorption performance such as silver (Ag), copper (Cu), carbon powder (C), zinc (Zn), polyaniline (PAni), iron (Fe), and conductive polymers; 37 to 65 wt% is added to the reactor and stirred to adjust the viscosity.
  • Step 5 Preparing the conductive ink
  • Conductive silver ink which is the material 1a shown in FIG. 5;
  • Conductive copper ink which is a material 1b shown in FIG. 6a,
  • Conductive silver nanowire ink (Silver nanowire ink), which is a material 1c shown in FIG. 6b;
  • Any one type of conductive ink is selected from among the conductive silver ink compositions, which are the 1d materials shown in FIG. 6c.
  • the type of the conductive ink forming the shape of the quantum energy generating coil is a conductive silver ink, a conductive copper ink, a nanowire ink, and a conductive silver ink composition. It is not limited to, and is merely an example, and any conductive ink having similar or higher quality such as conductivity, physicochemical properties, workability, dryness, adhesiveness, etc. of the exemplified conductive ink can be used.
  • any of thick paper, film (PVC, PE), copper, aluminum, tin, stainless steel (STS304), and coated steel plate in advance using the Scrayable Tech technology and the stencil technique One material is selected, and the selected material is used in a model-picking technique using a laser solenoid coil, toroid coil, cusp coil, helm-heltz coil, gradient saddle coil, uniform saddle coil, toroid coil, trigger coil, zigzag shape of coils (up and down, left and right), extension coils, motor stator coils, square coils, RF coils, toroidal coils, Tesla coils, Mobius coils, Caduceus coils ( Caduceus Coil), Rogoski coil shape, and a combination of these shapes.
  • a laser solenoid coil toroid coil
  • cusp coil helm-heltz coil
  • gradient saddle coil uniform saddle coil
  • toroid coil trigger coil
  • zigzag shape of coils up and down, left and right
  • extension coils motor stator coils
  • an adhesive (not shown) is applied to the paper surface in advance, and a quantum energy generating coil is printed with a metal selected from gold foil, copper foil, silver foil, etc. After attaching it to the surface, it is completed by peeling off the extra paper except for the quantum energy generating coil part from the transfer paper.
  • the adhesive is a transparent adhesive, and any one of a bisphenol A-based acrylate compound, an alcohol sisilyl-based acrylate compound, or a silicone adhesive is selected and used.
  • Step 7 Drying Step
  • a dryer (not shown), it is dried for 1 hour to 2 hours at a temperature in the range of 50 degrees Celsius to 150 degrees Celsius.
  • Step 8 Forming a protective layer
  • a protective layer is formed by applying an acrylic resin for surface protection twice to the surface on which the conductive coating liquid is sprayed, and then dried naturally.
  • the quantum energy generating coil is printed on the transparent film after a special plate or adhesive is applied on the surface of the material without printing the quantum energy generating coil with a conductive solution (ink liquid) ( 180) can be attached.
  • a conductive solution ink liquid
  • the number of quantum energy generating coils formed on the surface of one material may be one, or a plurality of quantum energy generating coils may be formed.
  • FIG. 8e is a schematic diagram showing a method of forming a quantum energy generating coil by printing a conductive ink on the surface of a sixth material in the form of a quantum energy generating coil.
  • the selected sixth material 160 A sixth method 260 of forming a quantum energy generating coil by printing and drying conductive ink on the surface in a selected quantum energy generating coil shape using a printing machine
  • Any one of the sixth materials (160) such as vegetable fiber, vegetable fiber, mineral fiber, regenerated fiber, synthetic fiber, and inorganic fiber is selected.
  • Step 2 Washing Step
  • a solvent such as ethyl alcohol or isopropyl alcohol to remove impurities on the surface.
  • Step 3 Preparing the conductive ink
  • Conductive silver ink which is the material 1a shown in FIG. 5;
  • Conductive copper ink which is a material 1b shown in FIG. 6a,
  • Conductive silver nanowire ink (Silver nanowire ink), which is a material 1c shown in FIG. 6b;
  • Any one type of conductive ink is selected from among the conductive silver ink compositions, which are the 1d materials shown in FIG. 6c.
  • the type of the conductive ink forming the shape of the quantum energy generating coil is a conductive silver ink, a conductive copper ink, a nanowire ink, and a conductive silver ink composition. It is not limited to, and is merely an example, and any conductive ink having similar or higher quality such as conductivity, physicochemical properties, workability, dryness, adhesiveness, etc. of the exemplified conductive ink can be used.
  • Step 4 Print Step
  • One material is selected, and the selected material is used for model-picking technology using lasers to make cusp coils, Helm-Heltz coils, gradient saddle coils, uniform saddle coils, toroid coils, trigger coils, zigzag coils (top and bottom, left and right) , extension coil, motor stator coil, square coil, RF coil, toroidal coil, Tesla coil, Mobius coil, Caduceus coil, Rogosky coil (Rogoski coil) From among the shapes and combinations of these shapes, place a perforated model frame with a shape selected from among the coil shapes, spray conductive ink on the model frame, remove the model frame, or select a quantum energy generating coil Select any one printing method among flexography, screen printing, offset printing, web grabber, inkjet printing, and dry printing method, in which the shape is input to the micro
  • Step 5 Drying Step
  • the quantum energy generating coil is printed on the transparent film after a special plate or adhesive is applied on the surface of the paper material without printing the quantum energy generating coil with a conductive solution (ink liquid). (180) can be attached.
  • the number of quantum energy generating coils formed on the surface of one material may be one, or a plurality of quantum energy generating coils may be formed.
  • 8f is a schematic diagram showing a method of forming a quantum energy generating coil by printing a conductive ink on the surface of the seventh material in the form of a quantum energy generating coil.
  • the selected seventh material 170 The seventh method 270 of forming a quantum energy generating coil by printing and drying conductive ink on the surface in a shape of a selected quantum energy generating coil using a printing machine.
  • any one of the seventh materials 170 such as thin plate glass, thick plate glass, transparent abrasive plate glass, sun shielding glass.
  • Step 2 Washing Step
  • a solvent such as ethyl alcohol or isopropyl alcohol to remove impurities on the surface.
  • Step 3 Preparing the conductive ink
  • Conductive silver ink which is the material 1a shown in FIG. 5;
  • Conductive copper ink which is a material 1b shown in FIG. 6a,
  • Conductive silver nanowire ink (Silver nanowire ink), which is a material 1c shown in FIG. 6b;
  • Any one type of conductive ink is selected from among the conductive silver ink compositions, which are the 1d materials shown in FIG. 6c.
  • the type of the conductive ink forming the shape of the quantum energy generating coil is a conductive silver ink, a conductive copper ink, a nanowire ink, and a conductive silver ink composition. It is not limited to, and is merely an example, and any conductive ink having similar or higher quality such as conductivity, physicochemical properties, workability, dryness, adhesiveness, etc. of the exemplified conductive ink can be used.
  • Step 4 Print Step
  • any of thick paper, film (PVC, PE), copper, aluminum, tin, stainless steel (STS304), and coated steel plate in advance using the Scrayable Tech technology and the stencil technique One material is selected, and the selected material is used in a model-picking technique using a laser solenoid coil, toroid coil, cusp coil, helm-heltz coil, gradient saddle coil, uniform saddle coil, toroid coil, trigger coil, zigzag shape of coils (up and down, left and right), extension coils, motor stator coils, square coils, RF coils, toroidal coils, Tesla coils, Mobius coils, Caduceus coils ( Caduceus Coil), Rogoski coil shape, and any combination of these shapes.
  • a laser solenoid coil toroid coil
  • cusp coil helm-heltz coil
  • gradient saddle coil uniform saddle coil
  • toroid coil trigger coil
  • zigzag shape of coils up and down, left and right
  • extension coils motor stator coils
  • an adhesive (not shown) is applied to the paper surface in advance, and a quantum energy generating coil is printed with a metal selected from gold foil, copper foil, silver foil, etc. After attaching it to the surface, it is completed by peeling off the extra paper except for the quantum energy generating coil part from the transfer paper.
  • Step 5 Drying Step
  • Dry in a dryer (not shown) at a temperature in the range for 1 hour to 2 hours.
  • the quantum energy generating coil instead of printing the quantum energy generating coil with a conductive solution (ink liquid) on the surface of the seventh material 170, an adhesive is applied on the surface of the paper material, and then the seventh material printed with the quantum energy generating coil is attached to the transparent film.
  • a conductive solution ink liquid
  • the number of quantum energy generating coils formed on the surface of one material may be one, or a plurality of quantum energy generating coils may be formed.
  • 8g is a schematic diagram showing a method of forming a quantum energy generating coil by printing a conductive ink on the surface of the eighth material in the form of a quantum energy generating coil using a printing machine.
  • any one of the transparent eighth materials such as polyimide, PET (polyethyleneterephthalate), PMMA (polymethyl methacrylate), PDMS (polymethylsiloxane), polyester film, polyethylene film, polypropylene film, and PVC film.
  • Step 2 Surface cleaning step
  • Step 3 Preparing the conductive ink
  • Conductive silver ink which is the material 1a shown in FIG. 5;
  • Conductive copper ink which is a material 1b shown in FIG. 6a,
  • Conductive silver nanowire ink (Silver nanowire ink), which is a material 1c shown in FIG. 6b;
  • Any one type of conductive ink is selected from among the conductive silver ink compositions, which are the 1d materials shown in FIG. 6c.
  • the type of the conductive ink forming the shape of the quantum energy generating coil is a conductive silver ink, a conductive copper ink, a nanowire ink, and a conductive silver ink composition. It is not limited to, only an example, and any conductive ink having similar or higher quality such as conductivity, physicochemical properties, workability, dryness, adhesiveness, etc. of the exemplified conductive ink can be used.
  • Step 4 Print Step
  • Step 5 Drying Step
  • the quantum energy generating coil completes the printed material.
  • an adhesive special glue
  • toroid coil cusp coil, helm-heltz coil, gradient saddle coil, uniform saddle coil, toroid coil, trigger coil, zigzag coil (up and down, left and right), extension coil, electric motor Shapes for stator coils, square coils, RF coils, toroidal coils, Tesla coils, Mobius coils, Caduceus coils, Rogoski coil shapes and these Among the combined shapes, the transfer paper on which the quantum energy generating coil is printed is attached to the paper surface in a shape selected from one of the coil shapes, and other extra paper is peeled off from the transfer paper except for the quantum energy generating coil part to complete.
  • the decalcomania method i.e., the offset printing method, and Solenoid coil, toroid coil, cusp coil, helm-heltz coil, gradient saddle coil, uniform saddle coil, toroid coil, trigger coil, zigzag coil (up and down, left and right), extension coil, electric motor Shapes for stator coils, square coils
  • the number of quantum energy generating coils formed on the surface of one material may be one, or a plurality of quantum energy generating coils may be formed.
  • Figure 8h shows a conductive metal plate such as copper (cu) on the surface of the first material, the second material, the third material, the fourth material, the fifth material, the sixth material, the seventh material, and the eighth material in the form of a quantum energy generating coil.
  • a conductive metal plate such as copper (cu) on the surface of the first material, the second material, the third material, the fourth material, the fifth material, the sixth material, the seventh material, and the eighth material in the form of a quantum energy generating coil.
  • Step 2 Quantum Energy Generation Coil Shape Selection Step:
  • Step 3 Quantum Energy Generation Coil Manufacturing Step:
  • Step 4 Attaching the Quantum Energy Generation Coil:
  • the quantum energy generating coil manufactured in step 3 is attached using a compression press (not shown) or by manpower.
  • Step 5 Drying Step
  • step 4 the quantum energy generating coil and the material attached to the surface of the material are dried in a dryer (not shown) at a temperature of 50 to 150 degrees Celsius for 1 to 2 hours or naturally dried.
  • the adhesive is a transparent adhesive, and any one of a bisphenol A-based acrylate compound, an alcohol sisilyl-based acrylate compound, or a silicone adhesive is selected and used.
  • the number of quantum energy generating coils formed by being perforated on the surface of one metal material by the method of 9a may be one, or a plurality of quantum energy generating coils may be formed.
  • Figure 8i shows the surface of the material in the form of a quantum energy generating coil using the wire coated on the surface of the first material, the second material, the third material, the fourth material, the fifth material, the sixth material, the seventh material, and the eighth material.
  • Step 2 Quantum Energy Generation Coil Shape Selection Step:
  • Step 3 Adhesive Application Steps:
  • Step 4 Quantum Energy Generation Coil Manufacturing Step:
  • Quantum energy generating coil is manufactured by winding the conductive metal wire coated in the shape of the quantum energy generating coil selected in step 2 on the area where the adhesive is applied in step 3 with the selected coated conductive metal wire, or
  • Quantum energy generating coil is manufactured by winding using ELWire composed of central electrode, light emitting layer, surface electrode, protective tube, wire, and color layer.
  • Step 5 Drying Step
  • step 4 the quantum energy generating coil and the material attached to the surface of the material are dried in a dryer (not shown) at a temperature of 50 to 150 degrees Celsius for 1 to 2 hours or naturally dried.
  • the adhesive is a transparent adhesive, and any one of a bisphenol A-based acrylate compound, an alcohol sisilyl-based acrylate compound, or a silicone adhesive is selected and used.
  • Figure 8j shows the surface of the 1st material, the 2nd material, the 3rd material, the 4th material, the 5th material, the 6th material, the 7th material, and the 8th material.
  • the conductive ink on the surface of the 8th material As a cross-sectional view showing the 9c method of manufacturing a quantum energy generating coil by a method of printing,
  • any of the first material 110 , the second material 120 , the third material 130 , the fourth material 140 , the fifth material 150 , the sixth material 160 , and the seventh material 170 . choose one material.
  • Step 2 Adhesive Application Steps:
  • the 8th method is to print conductive ink on the surface of the material (the 8th method), and the adhesive is applied to the part where the quantum energy generating coil will be attached.
  • Step 3 Attaching the Quantum Energy Generation Coil:
  • the quantum energy generating coil manufactured by the 8th method of step 2 is laminated to be interviewed on the surface of the material to which the adhesive is applied, and then a compression press (not shown) is used. or attach manually.
  • Step 4 Drying Step
  • step 4 the quantum energy generating coil and the material attached to the surface of the material are dried or naturally dried for 1 to 2 hours at a temperature of 50 to 150 degrees Celsius in a dryer (not shown).
  • the number of quantum energy generating coils formed on the surface of one material by the 9c method may be one, or a plurality of quantum energy generating coils may be formed.
  • the adhesive is a transparent adhesive, and any one of a bisphenol A-based acrylate compound, an alcohol sisilyl-based acrylate compound, or a silicone adhesive is selected and used.
  • 8k is a cross-sectional view showing a 9d method of manufacturing a quantum energy generating coil using an electroluminescence device, which will be described with reference to the attached drawings;
  • An electroluminescence device consists of a transparent substrate 1 , a first electrode 2 , an electroluminescence layer 3 , a second electrode 4 , and a protective layer 5 .
  • Step 2 Selection of shapes of the first electrode and the second electrode
  • Step 3 Processing and lamination of the first electrode and the second electrode
  • the first electrode 2 is formed in the form of a stripe in the form of a quantum energy generating coil on the transparent substrate 1
  • the organic electroluminescent layer 3 is formed on the first electrode 2
  • the organic electroluminescent layer On (3), the second electrode 4 is stacked in a structure formed in the form of a quantum energy generating coil-shaped stripe.
  • ITO Indium Tin Oxide
  • Step 5 Organic electroluminescent layer (3) layer step
  • An organic electroluminescent layer (3) layer is formed on the first electrode (2).
  • the second electrode (4) is formed in the same shape as the quantum energy generating coil formed on the first electrode (2) do.
  • the organic electroluminescent layer in the middle region between the second electrode 4 and the second electrode 4 by using a dry etching method such as plasma etching, ion milling, or laser etching.
  • a dry etching method such as plasma etching, ion milling, or laser etching.
  • the number of quantum energy generating coils formed on the material surfaces of each one of the first electrode and the second electrode manufactured by the method of 9d may be one, or a plurality of quantum energy generating coils may be formed.
  • 8L is a cross-sectional view showing a method of manufacturing a quantum energy generating coil of a sealed structure, and will be described with reference to the accompanying drawings, the 9e method of manufacturing the quantum energy generating coil of the sealed structure is
  • Second material 120 iron (Fe), copper (Cu), zinc (Zn), tin (Sn), which are non-conductive materials such as PVC, PE, PC, acrylic, bakelite, tempered glass molded foam (FRP), etc. ,Stainless steel (STS304, STS316), aluminum (AL), hastalloy, the third material 130, which is a metal material such as a panel with an insulation or cold insulation attached, concrete wall, an inorganic material such as a tile, block, brick, board, etc. 5th material 150, thin plate glass, thick plate glass, transparent abrasive plate glass, sun shielding glass.
  • 7th material 170 such as blocking glass for X-ray blocking, heat insulation, and preventing condensation, polyimide, PET (polyethylene terephthalate) , PMMA (polymethyl methacrylate), PDMS (polymethylsiloxane), polyester film, polyethylene film, polypropylene film, select any one material from the eighth material 180 of a transparent material such as PVC film,
  • Step 2 Grinding and Cleaning Steps
  • the second material 120 which is a non-conductive material such as PVC, PE
  • the third material 130 which is a metal material such as iron (Fe) and copper (Cu), an inorganic material such as a concrete wall, tile, block, brick, board
  • the selected material among the fifth material 150 is to grind the part where the quantum energy generating coil is to be formed by using an electric sander and to remove dust using a vacuum cleaner, and the seventh material 170 such as thick plate glass, polyimide
  • foreign substances in the area where the quantum energy generating coil is to be formed are removed by using a cleaning solution such as isopropyl alcohol.
  • Step 3 Preparing the conductive ink
  • Conductive silver ink which is the material 1a shown in FIG. 5;
  • Conductive copper ink which is a material 1b shown in FIG. 6a,
  • Conductive silver nanowire ink (Silver nanowire ink), which is a material 1c shown in FIG. 6b;
  • Any one type of conductive ink is selected from among the conductive silver ink compositions, which are the 1d materials shown in FIG. 6c.
  • the type of the conductive ink forming the shape of the quantum energy generating coil is a conductive silver ink, a conductive copper ink, a nanowire ink, and a conductive silver ink composition. It is not limited to, and is merely an example, and any conductive ink having similar or higher quality such as conductivity, physicochemical properties, workability, dryness, adhesiveness, etc. of the exemplified conductive ink can be used.
  • Step 4 Print Step
  • any of thick paper, film (PVC, PE), copper, aluminum, tin, stainless steel (STS304), and coated steel plate in advance using the Scrayable Tech technology and the stencil technique One material is selected, and the selected material is used in a model-picking technique using a laser solenoid coil, toroid coil, cusp coil, helm-heltz coil, gradient saddle coil, uniform saddle coil, toroid coil, trigger coil, zigzag shape of coils (up and down, left and right), extension coils, motor stator coils, square coils, RF coils, toroidal coils, Tesla coils, Mobius coils, Caduceus coils ( Caduceus Coil), Rogoski coil shape, and any combination of these shapes.
  • a laser solenoid coil toroid coil
  • cusp coil helm-heltz coil
  • gradient saddle coil uniform saddle coil
  • toroid coil trigger coil
  • zigzag shape of coils up and down, left and right
  • extension coils motor stator coils
  • an adhesive (special glue) is applied to the paper surface in advance, and a quantum energy generating coil is printed with a metal selected from gold foil, copper foil, silver foil, etc. After attaching it to the surface, it is completed by peeling off the extra paper except for the quantum energy generating coil part from the transfer paper.
  • Step 5 Drying Step
  • Dry in a dryer (not shown) at a temperature in the range for 1 hour to 2 hours.
  • the second material 120 which is a non-conductive material such as PVC, PE, PC, acrylic, Bakelite, and tempered glass molding foam (FRP), on which a quantum energy generating coil is formed on the surface, is directed outward so that the printed coil surface is in contact with the liquid.
  • FRP tempered glass molding foam
  • the conducting wires (not shown) connected to each quantum energy generating coil are pulled out (protruding from the bonding surface to the outside) and then interviewed with an adhesive or solvent.
  • the parts are joined in an airtight structure, or in the case of PVC material, the edges of the joint are welded with a PVC welding machine.
  • the third material 130 which is a metal material such as iron (Fe), copper (Cu), zinc (Zn), tin (Sn), stainless steel (STS304, STS316), aluminum (AL), hastalloy, is a printed coil Face the front and back surfaces with the surface facing outward to contact the liquid or inward to avoid contact with the liquid. After finishing, select any one welding method among ARC welding, TIG welding, and MIG welding for the edge of the joint surface and weld the edge of the joint surface.
  • the fifth material 150 which is an inorganic material such as concrete walls, tiles, blocks, bricks, and boards, is
  • Eighth transparent material such as polyimide, PET (polyethyleneterephthalate), PMMA (polymethyl methacrylate), PDMS (polymethylsiloxane), polyester film, polyethylene film, polypropylene film, PVC film, etc. Attach any one of the materials 180, or
  • the second material 120 which is a non-conductive material such as PVC, PE, PC, acrylic, Bakelite, tempered glass molding foam (FRP), etc., on which a quantum energy radiation coil is formed on the surface, or iron ( Fe), copper (Cu), zinc (Zn), tin (Sn), stainless steel (STS304, STS316), aluminum (AL),
  • the third material 130 which is a metal material such as hastalloy, is a quantum energy generating coil Select any one shape among the shapes, and manufacture by attaching the quantum energy generating coil processed by model picking technology using laser technology to the selected shape.
  • the number of quantum energy generating coils formed on the surface of one material by the 9e method may be one, or a plurality of quantum energy generating coils may be formed.
  • the first power supply 310 is the first Rectifier 311, Transformer 312, FET switch 313, second rectifier 314, PWM (Pulse width modulation) control method and pulse frequency modulation PFM (pulse frequency modulation) and pulse Frequency (density) control (PDM), pulse repetition rate control (PRR) with built-in pulse control unit 315, magnetic field detection sensor 315a, switching control unit 316, and consists of a post regulator 317, the first rectifying unit When the AC voltage (A.C) is supplied to the 311, the AC voltage (A.C) supplied from the first rectifying unit 311 is converted into a DC voltage and the converted DC voltage is supplied to the transformer (Transformer) 312 when the transformer ( When the voltage is reduced to a low voltage of 220V or less in the transformer) 312 or the voltage is transformed to a high voltage in
  • the switching control unit 316 stops the high-frequency switching operation of the FET switch 313 before the pulse control unit 315 generates a transmission pulse.
  • the pulse control unit 315 at the same time as the transmission pulse is generated, DC voltage is printed on the surface of the first to eighth materials, or both A metal plate perforated in the form of an energy generating coil is attached or a covered electric wire is wound in the form of a quantum energy generating coil to output a DC voltage to the first and second quantum energy generating coils, or the first and second quantum energy generating coils DC voltage is output to each.
  • the modulation range of the frequency in the first power supply 310 is 1Hz to 100Hz range, 100Hz to 1KHz range, 1KHz to 10KHz range, 10KHz to 1MHz range, 1MKHz to 100MHz range, 100MKHz to 10GHz range.
  • Figure 10a is a schematic diagram showing a second power supply for supplying power to the quantum energy generating coil formed on the plane of the first to eighth material,
  • the second power supply 320 includes a step-down (step-up) transformer 321 , a rectifier circuit 322 , an input module 323a , an operation module 323b , and a PWM (pulse width modulation) control method.
  • a control unit 323 comprising a control module 323c with built-in pulse frequency modulation (PFM) and pulse frequency (density) control (PDM), pulse repetition rate control (PRR) functions, a current detection sensor 324,
  • PFM pulse frequency modulation
  • PDM pulse frequency (density) control
  • PRR pulse repetition rate control
  • a current detection sensor 324 When the magnetic field detection sensor 325 is configured and single-phase 220V, 60Hz AC power is supplied to the step-up transformer 321, the step-up transformer 321 boosts the single-phase 1-10KV, 60Hz AC power and supplies it to the rectifier 322.
  • the rectifier 322 converts the single-phase 1-10KV to DC power in the range of 60Hz.
  • the input module 323a of the control unit 323 is a step-by-step voltage value (V) of the DC power supplied to the first and second magnetic field generating coils 121 and 122, that is, the first and second magnetic field generating coils 121 , 122) supply of the minimum (mA) and maximum (A) of the variable current, the minimum (mT) and maximum (T) of the variable magnetic field, and the power supply time for each step (seconds to minutes, or minutes to hours), etc.
  • V voltage value
  • Variables such as current value, voltage value, pulse width, pulse density, pulse period, frequency burst length, main power supply time and stop time (timer function), switching element function, surface temperature control function of quantum energy generating coils (121, 122) (Parameter) to the program built-in, the user sets each of the parameters (Parameter) to the monitor (not shown) of the input module 323a, for example, setting the operation step among the steps divided by 1 to 10 steps Enter the data of the next selected step.
  • the operation module 323b executes an operation program on a plurality of parameters input by the user to the input module 323a to generate a first magnetic field generating coil 121 and a second magnetic field generating coil 122 for generating variable quantum energy.
  • a current value corresponding to 1 may be generated.
  • the first and second quantum of the magnetic field sensor 325 and the first quantum energy generator 320 By measuring the magnetic field of the energy generating coil, the strength value and current value of the magnetic field are corrected and calculated based on the data transmitted in real time.
  • the current control module 323c generates a current corresponding to the strength of the magnetic field to be generated by the first magnetic field generating coil 121 and the second magnetic field generating coil according to the current value transmitted from the operation module 323b to generate the first While supplying the quantum energy generating coil 121 and the second quantum energy generating coil 122, the first and second quantum energy generating coils 121 and 122 current detection sensor 324 installed in one or each of the lead-in lines ) detects the current flowing in one or each of the incoming wires of the first and second quantum energy generating coils and transmits them in real time to the calculation module 323b, the user inputted to the input module 323a (Parameter) When the upper and lower limits of the set value are deviating from the set value compared with the set value, the calculation program is executed to restore the set value to the original set value by executing the calculation program.
  • the current control module 323c supplies power in the form of a pulse (PEMF) suitable for the current modified for each step by step to the first quantum energy generating coil and the second quantum energy generating coil, or to the magnetic field detection sensor.
  • PEMF pulse
  • the second quantum energy generating coil 122 is supplied or the first and second quantum energy generating coils are supplied with power in a pulse form (PEMF).
  • the operation module 323b compares the generated current value with the current value digitized in the current first quantum energy generating coil and the second quantum energy generating coil received from the current detection sensor 324, and the difference A current value required through PID control according to
  • the quantum energy generating coil transmits the temperature measured in real time by the temperature detection sensor 324 to the controller 323 through a conducting wire (not shown), and the temperature set by analyzing the measured temperature data received from the controller 233 . Controls the output-side power supplied to the first quantum energy generating coil 121 and the second quantum energy generating coil 122 of the power supply 320 to maintain the.
  • the magnetic field detection sensor 325 is a SQUID (Super conducting Quantum Interference Device) sensor, nuclear magnetic resonance (NMR), atomic magnetic resonance (AMR) sensor, fluxgate (Fluxgate) sensor, MR (You can select and use any one of Magnetic Resistance Sensor, MI (Magnetic Impedance) Sensor, Hall Effect Sensor, Optical Fiber Magnetic Sensor, and Search Coil.
  • SQUID Super conducting Quantum Interference Device
  • NMR nuclear magnetic resonance
  • AMR atomic magnetic resonance
  • Fluxgate Flugate
  • MR Magnetic Resistance Sensor
  • MI Magnetic Impedance
  • Hall Effect Sensor Hall Effect Sensor
  • Optical Fiber Magnetic Sensor and Search Coil.
  • the modulation range of the frequency in the second power supply 320 is 1Hz to 100Hz range, 100Hz to 1KHz range, 1KHz to 10KHz range, 10KHz to 1MHz range, 1MKHz to 100MHz range, 100MKHz to 10GHz range.
  • radio waves With the development of electric and electronic industries and information and communication technology around the world, various wireless communication and broadcasting services using radio waves have become available. And the technologies that apply radio waves like this are gradually expanding their development range from the mobile communication field that we are often in contact with, the medical industry, and furthermore, the aviation and space industry. The use of these radio waves is our Various visual and spatial constraints that exist in life have been resolved.
  • electromagnetic waves are known to be harmful to the human body when exposed for a long time even if the degree of electromagnetic waves is weak.
  • an induced current is generated in the human body, such as Na+, K+, Cl-, etc. present inside and outside the cell membrane. It is known to affect hormone secretion and immune cells by causing an imbalance of various ions of
  • electromagnetic wave blocking devices and electromagnetic wave blocking and absorbing compositions have been developed and used to protect the human body from electromagnetic waves.
  • FIG. 10B is a schematic diagram showing a third power supply for supplying power to the quantum energy generating coil formed on the plane of the first to eighth material.
  • the third power supply unit 330 is a power transmitter comprising a power supply unit 331 , an output power generation unit 332 , a frequency modulation unit 333 , an output time adjustment unit 334 , and a transmission coil unit 335 . (330); and
  • a power receiver 330a comprising a receiving coil unit 331a, a power generating unit 332a, and a feedback signal generating unit 333a;
  • Converter unit 331b inverter unit 332b, resonance reactor 333b, pulse transformer 334b, control unit 335b, gate driver 336b, first condenser 337b, and second condenser 338 ) a high voltage generator 330b composed of b;
  • a quantum energy irradiation unit 340 consisting of a first quantum energy generating coil (335b-1), a second quantum energy generating coil (335b-2), and a wire (335b-3).
  • the power supply unit 331 of the power transmitter supplies AC power of 220V 60Hz through a conducting wire.
  • the output power generating unit 332 generates a high frequency signal of 1 MHz-15 MHz by implementing the AC power of 220V 60Hz provided from the power supply unit 331 in the form of an inverter or in the form of an amplifier.
  • the frequency modulator 333 determines an optimal transmission frequency using the feedback signals FB1 and FBn input from the receiver 341 and modulates the transmission frequency of the output signal.
  • the feedback signals FB1 and FBn include information corresponding to the received power value.
  • the frequency modulator 333 may be modulated within 10% of an independent resonant frequency.
  • the independent resonant frequency is a frequency causing resonance between the wireless power transmitter 330 and the wireless power receiver 340 for wireless power transmission. If the independent resonant frequency is 9.6 MHz, the optimal number of jumpers may be 8.7 MHz-9.7 MHz.
  • the output time adjusting unit 334 adjusts the output time of the high frequency signal output from the wireless power transmitter 330 . For example, when the wireless power transmitter 330 searches for an optimal frequency, the output time adjusting unit 334 controls to output a high frequency signal only for a short time. On the other hand, after the optimal frequency of the wireless power transmitter 330 is determined, the output time adjusting unit 334 controls to output a high frequency signal for most of the time.
  • the transmitting coil unit 335 transmits the high-frequency signal generated by the output power generating unit 332 to the receiving coil units 441.
  • the transmitting coil unit 335 includes a power coil 335-1 and a transmitting coil ( 335-2).
  • the power coil 335 receives a high-frequency current corresponding to the high-frequency signal generated by the output power generator 332.
  • the power coil 335-1 may use a coil having a diameter of 3 mm or more to reduce loss due to resistance. have.
  • the transmitting coil 335-2 induces a high-frequency current of the power coil 335-1 by magnetic induction, and generates a high-frequency signal, ie, a non-radiative electromagnetic wave, to the plurality of receiving devices 330 .
  • the transmitting coil 335-2 may use a coil having a diameter of 3 mm or more in order to reduce a loss in resistance. The number of turns and the turn interval of the transmitting coil 335-2 are adjusted to match the target resonance frequency.
  • the transmitting coil 335 - 2 may be implemented in a solenoid coil structure.
  • the AC power of 220V 60Hz When AC power of 220V 60Hz is supplied from the power supply 331 to the output power generation unit 332 through a wire, the AC power of 220V 60Hz provided from the power supply unit 331 in the output power generation unit 332 is implemented in the form of an inverter or , When a high-frequency signal of 1 MHz-15 MHz is generated by being implemented in the form of an amplifier and then transmitted to the frequency modulator 333 , the frequency modulator 333 optimizes it using the feedback signals FB1 input from the receiver 341 .
  • the output time control unit 334 determines the transmission frequency of , modulates the transmission frequency of the output signal, and at the same time the output time control unit 334 searches for the optimal frequency of the wireless power transmitter 330, the output time control unit 334 outputs a short time Control to output the high-frequency signal only during the period, on the other hand, after the wireless power transmitter 334 has determined the optimal frequency, the output time adjusting unit 334 adjusts the output time to output the high-frequency signal for most of the time and adjusts the output time to the transmitter ( 335), the power coil 235-1 of the transmitter 335 receives a high-frequency current corresponding to the high-frequency signal generated by the output power generator 332, and sends it to the transmission coil 335-2, the transmission coil 335 In -2), a high-frequency current of the power coil 335-1 is induced by magnetic induction, and a high-frequency signal, ie, a non-radiative electromagnetic wave, is generated by the power receiving device 330a and transmitted to the receiving coil unit 331a.
  • the power receiver 330a is composed of a receiving coil unit 331a, a power generating unit 332a, and a feedback signal generating unit 333a, wherein the receiving coil unit 331a includes a receiving coil 331a-1 and a load coil ( 331a-2).
  • the receiving coil 331a receives the high frequency signal transmitted from the transmitting coil 335-2.
  • the receiving coil 331a may have a spiral structure.
  • the receiving coil 241 may have a helical structure.
  • the load coil 332a is implemented to be positioned as close as possible to the receiving coil 231a because power is transmitted by magnetic induction.
  • the power generator 332a receives a high-frequency current from the load coil 332a and generates a DC power.
  • the generated DC power is supplied to the first and second quantum energy generating coils,
  • the load unit 333 is a device using the generated DC power.
  • the feedback signal generator 333a generates a feedback signal FB1 corresponding to the received power value.
  • the feedback signal generator 333a may be implemented as a passive type of RFID (Radion Frequency IDentification).
  • the power receiver 330a receives the non-radiative electromagnetic wave transmitted from the transmission unit 335 of the power transmitter 330 in the reception coil 331a and supplies it to the power generation unit 332a, in the power generation unit 332a Directly supplying power to the first and second quantum energy generating coils or generating DC power suitable for the power required by the high voltage generating unit 330b, and at the same time corresponding to the power value received from the feedback signal generating unit 333a A feedback signal is generated and supplied to the high voltage generator.
  • the wireless power receiver 330a corresponds to the reception coil unit 331a, the power generation unit 332a, the first and second quantum energy generation coils, and the load and feedback signal generation unit 333a of the high voltage supply unit 330b, respectively. corresponds to
  • a general resonant wireless power transmission method has a high power transmission efficiency when the resonant frequency is matched, but there is a problem that the resonant frequency is changed according to the locations of the wireless power receivers.
  • the wireless power transmission system 330 of the present invention determines an optimal transmission frequency for power transmission based on feedback signals of wireless power receivers input in real time, and transmits a high-frequency signal modulated to the determined optimal transmission frequency. implemented to transmit.
  • the high voltage generator 330b includes a DC voltage regulator 331b, a converter 332b, an inverter 333b, a resonance reactor 334b, a pulse transformer 335b, and a PWM (Pulse Width Modulation) control method.
  • PFM pulse frequency modulation
  • PDM pulse frequency (density) control
  • PRR pulse repetition rate control
  • control unit (336b) is a magnetic field detection sensor (336b-1) and the magnetic field detection sensor (336b-1) installed on one side of the wall of the specific space to measure the magnetic field inside the specific space in real time and transmit it to the control unit (336b) It includes a receiving unit (not shown) for receiving the data.
  • the DC voltage regulator 331b adjusts the DC voltage generated by the power generation unit 332b to a target voltage previously input to the control unit and constant voltage using a voltage regulator (not shown) or a shunt regulator.
  • the reference voltage is kept constant by using a shunt regulator such as a Xenodiode, a breakdown diode, or a voltage regulation tube.
  • a shunt regulator such as a Xenodiode, a breakdown diode, or a voltage regulation tube.
  • the converter unit 332b boosts the DC voltage to a high voltage through a switching operation.
  • the inverter unit 333b modulates the DC voltage boosted by the converter unit 332b into a pulsed electromagnetic field (PEMF) voltage.
  • PEMF pulsed electromagnetic field
  • the resonance reactor 334b matches the loads of the first quantum energy generating coil 341 and the second quantum energy generating coil 342 .
  • the pulse transformer 335b boosts the output voltage of the inverter unit 333b.
  • Pulse amplitude modulation of the switching output of the first quantum energy generating coil 335a-1, the second quantum energy generating coil 335a-2, and the inverter unit 333b receiving the output voltage of the pulse transformer 335b Forms a signal for controlling the output voltage of the converter unit 332b to perform (PAM), the first quantum energy generating coil (335a-1), the second quantum energy generating coil (335a-2) generated
  • the control signal applied from the control unit 336b and the control unit 336b that forms a signal capable of controlling the pulse frequency (density) independently of the amplitude of the pulse in order to control the amount of quantum energy generated by adjusting the strength of the magnetic field.
  • a gate driving unit 337b for amplifying the voltage of , and applying the amplified voltage to the converter 332b and the inverter 333b.
  • the first capacitor 338b for inputting the voltage of the first capacitor 338b to the converter part 332b and the second capacitor 339b by reducing the ripple of the DC voltage boosted through the converter part 332b. and a second condenser 339b for inputting to the unit 333b.
  • the DC voltage supplied is boosted by the converter unit 332b through a switching operation
  • the DC voltage boosted by the inverter unit 333b is modulated into an AC pulsed electromagnetic field (PEMF) voltage, and then the pulse transformer unit ( In 335b), the output voltage of the inverter unit 333b is boosted and applied to the first quantum energy generating coil 335a-1 and the second quantum energy generating coil 335a-2.
  • PEMF AC pulsed electromagnetic field
  • the input unit (not shown) is separately built inside the control unit 336b, so that the user can use the current value and voltage supplied to the first quantum energy generating coil 335a-1 and the second quantum energy generating coil 335a-2.
  • Value, frequency value, power supply time and stop time (timer function) can be input to the input unit.
  • the power in the form of a pulsed electromagnetic field (PEMF) generated by the high voltage generator 330b is transmitted through the conducting wire 339b-1 to the first quantum energy generating coil 335a-1 and the second quantum energy generating coil 335a. -2) or when power is supplied to each of the first quantum energy generating coil and the second quantum energy generating coil, the current flow direction and 90
  • a magnetic field in the form of a pulsed electromagnetic field (PEMF) is generated at an angle at an angle, a Lorentz force is applied, and a magnetic field in the form of a pulsed electromagnetic field (PEMF) is superimposed and dissipated between the first and second quantum energy generating coils to become zero.
  • a magnetic field pulsating quantum energy is irradiated.
  • the modulation range of the frequency in the third power supply 330 is 1Hz to 100Hz range, 100Hz to 1KHz range, 1KHz to 10KHz range, 10KHz to 1MHz range, 1MKHz to 100MHz range, 100MKHz to 10GHz range.
  • the strength (B) of the magnetic field is proportional to the number of turns n) of the coil wound around the rectangular solenoid and the strength of the current (I) flowing through the coil. Its internal magnetic field is much larger than the external magnetic field.
  • solenoid coil, toroid coil, cusp coil, Helm Heltz coil, gradient saddle coil, uniform saddle coil, toroid coil, trigger coil to generate a strong magnetic field ,Zigzag coil (top and bottom, left and right), extension coil, motor stator coil, square coil, RF coil, toroidal coil, Tesla coil, Mobius coil, k
  • Conductive ink containing ferromagnetic material is added to the coil shape selected from among Caduceus Coil, Rogoski coil shape, and a combination of these shapes by using a printing machine. City) can be printed overlaid or printed on the periphery.
  • All atoms constituting matter are composed of electrons and protons to generate their respective magnetic fields, and these particles have a spin in the magnetic field and have a spin magnetic dipole moment.
  • iron, nickel, cobalt, etc. are a kind of transition manuscript, and even if the inner electrons are not filled, the outer electron end has a unique electronic structure that contains electrons. Because they do not, these atoms have a greater magnetic moment than other atoms.
  • n number of free charges per unit volume
  • g moving charges
  • v moving speed of positive charges
  • Figure 10c is a schematic diagram showing a fourth power supply for supplying power to the quantum energy generating coil formed on the plane of the first to eighth material,
  • the fourth power supply 340 includes an input unit 341 , a control unit 342 , a magnetic field detection sensor 342a , a switching converter unit 343 , a high voltage generator 344 , and a rectifying unit 345 .
  • the input unit 341 receives 220V and 3-12V DC power by the DC power supply by the power plug, and the pulse width, trigger period, and relay to be applied to the first and second quantum energy generating coils by the user in advance. Enter variable settings and set values.
  • the control unit 342 has a built-in microcomputer and functions as a central control unit.
  • the control unit 342 is connected so that the output signal of the input unit 341 is inputted, and the data of the switching converter unit 343 and the boost unit 344 to be described below.
  • Communication function is built-in to enable communication for sending and receiving.
  • control unit 342 measures the magnetic field inside the specific space in real time from the magnetic field detection sensor 342a and the magnetic field detection sensor 342a installed on one side of the wall of the specific space and transmits the data to the control unit 342. and a receiving unit (not shown).
  • the switching converter unit 343 receives data from the control unit 342 based on a menu setting and an adjusted value according to a user's input from the input unit 341, and adjusts a PWM signal of a frequency according to the received data to obtain a square wave. It outputs a pulse of , controls the current suitable for the controlled pulse width, provides a relay signal, measures voltage, current, and temperature, and transmits data to the control unit 342 at regular intervals.
  • Microcomputer is built-in and communication function is built in.
  • the switching converter unit 343 is provided to send and receive data to and from the control unit 412 and the boost unit 344 through communication, and outputs a square wave pulse with respect to a DC voltage so that a current corresponding to the controlled pulse width flows. It controls and provides ON/OFF signals to the relay and doubles it so that it has a voltage or duty control function.
  • the switching converter unit 343 receives data from the control unit 342 based on the menu setting and the adjusted value according to the user input, and adjusts the PWM (pulse width modulation) signal of the frequency according to the received data to obtain a square wave pulse. output and let a current fit to the controlled pulse width flow, adjust duty according to this amount of current, and provide ON/OFF signal to the relay.
  • PWM pulse width modulation
  • the switching converter unit 343 measures the current state voltage, current, temperature, etc. to the control unit at regular intervals and transmits the same data, so that the duty ratio can be adjusted according to the amount of current to be controlled. do.
  • the high voltage generator 344 (20KHz-100KHz) is connected to supply a high voltage to the first and second quantum energy generating coils 321 and 322, or to the first and second quantum energy generating coils 321 and 322, respectively. It is connected to determine whether there is a rectified (trigger) signal from the control unit 342, outputs a rectified (trigger) signal in the form of a pulse, measures the voltage, and transmits data to the control unit 342 at regular intervals, Microcomputer is built-in and communication function is provided.
  • the high voltage generator 344 is provided to exchange data with the controller 342 and the switching converter 343 through communication, and when a rectification (trigger) signal is received from the controller 342, rectification (trigger) It is provided to output a signal in the form of a pulse.
  • the high voltage generating unit 344 is respectively connected to the first and second quantum energy generating coils 321-1 and 321-2 and the rectifying unit 345, or the first and second quantum energy generating coils 321-1 and 321-2, respectively. is connected to
  • the constant high voltage generator 344 determines whether there is a rectification (trigger) signal that is a synchronization signal when receiving data from the control unit 342 based on a menu setting and an adjusted value for the user's input. Only when there is a signal, the rectification (trigger) signal is output in the form of a pulse and sent to the rectification unit 345 .
  • the rectification (trigger) signal be established within a certain period according to a user input or a preset type.
  • the high voltage generator 344 measures the current voltage and transmits the voltage data to the controller 342 at regular intervals.
  • the pulse width control of the power supply in the form of a pulse supplied to the quantum energy generating coil is applied by applying a digital method having a microcomputer, respectively. Characteristics can be adjusted more easily.
  • the rectifier 345 receives the rectified (trigger) signal output in the form of a pulse from the high voltage generator 344 and extracts a trigger waveform through rectification.
  • the rectifier 345 is provided to receive and rectify the rectified (trigger) signal output in the form of a pulse from the high voltage generator 344 to generate a self-rectified (trigger) signal for providing a synchronization signal.
  • the rectifier 345 extracts a waveform of only the positive side of the ON state or only the negative side of the OFF state from the repeated pulse output of ON/OFF through rectification, depending on the direction of installing the diode in the forward or reverse direction You can select and extract the trigger waveform of (ON/OFF or +/-).
  • the modulation range of the frequency in the fourth power supply 340 is 1Hz to 100Hz range, 100Hz to 1KHz range, 1KHz to 10KHz range, 10KHz to 1MHz range, 1MKHz to 100MHz range, 100MKHz to 10GHz range.
  • the power supply 350 is an AC power supply (AC ) power supply unit 351, AC/DC conversion unit 352, automatic supply power conversion unit 353 (ATS), low frequency generation and output unit consisting of a supply unit 351a or a DC power (DC: battery) supply 351b (354), switching element (355), PWM (pulse width modulation) control method and pulse frequency modulation PFM (pulse frequency modulation) and pulse frequency (density) control (PDM), pulse repetition rate control (PRR) function
  • AC AC
  • AC/DC conversion unit 352 automatic supply power conversion unit 353
  • ATS low frequency generation and output unit consisting of a supply unit 351a or a DC power (DC: battery) supply 351b (354), switching element (355), PWM (pulse width modulation) control method and pulse frequency modulation PFM (pulse frequency modulation) and pulse frequency (density) control (PDM), pulse repetition rate control (PRR) function
  • This built-in control unit 356 is composed of a magnetic field detection sensor (356
  • control unit 356 receives the transmitted data when the magnetic field detection sensor 356a and the magnetic field detection sensor 356a installed on one side of the wall of the specific space measure the magnetic field inside the specific space in real time and transmit it to the control unit 356 . and a receiving unit (not shown).
  • the oscillator 354a pre-programs the power to be supplied to the quantum energy generating coil formed on the surface of the material partitioning a specific space in advance, and is input to the control unit 356, and first and second quantum energy are generated.
  • the frequency dividing unit 354b When a suitable electromagnetic wave to be applied to the coil is generated and applied to the frequency dividing unit 354b, the frequency dividing unit 354b generates the electromagnetic wave generated by the oscillator 354a in the first and second quantum energy generating coils at frequencies in different directions.
  • the amplifying unit 354d Converts the quantum energy generated in the zero magnetic field state by overlapping into a low-frequency signal so that it can be sufficiently generated, and when applied to the adjusting unit 354c, the frequency dividing unit ( 354c) according to the control of the controller 356
  • the amplifying unit 354d outputs the low-frequency pulse signal through the adjusting unit 354c to the first and second 2
  • the magnetic field corresponding to the converted value of the electromagnetic wave, frequency or measured electromagnetic wave, frequency inside the specific space is detected in real time and the detected data is transmitted to the receiving unit (not shown) of the real-time control unit 356, amplified to fit the transmitted data or to satisfy the input data value entered in advance (Pulsed electromagnetic field; PEMF) type power is supplied to
  • PEMF Pulsed electromagnetic field
  • power supply time and stop time may be added to the control circuit of the control unit 356 .
  • the battery is a rechargeable secondary battery, and is a nickel-cadmium (Ni-Cd) battery, an alkaline battery, a nickel hydrogen battery (Ni-MH) battery, a sealed lead acid (SLA), lithium ion (Li-ion), and a lithium polymer (Li- polymer), etc., and any one type is selected and used.
  • Ni-Cd nickel-cadmium
  • Na-MH nickel hydrogen battery
  • SLA sealed lead acid
  • Li-ion lithium ion
  • Li- polymer lithium polymer
  • the shape of the first quantum energy generating coil, the second quantum energy generating coil is a solenoid coil, a toroid coil, a cusp coil, a Helm Helts coil, a gradient saddle coil, a uniform saddle coil, a toroid coil, a trigger coil, a zigzag coil ( Up and down, left and right), extension coil, motor stator coil, square coil, RF coil, toroidal coil shape, Tesla coil, Mobius coil, Caduceus coil ), a Rogoski coil, and any one of the shapes in which these shapes are combined is selected and used.
  • the modulation range of the frequency in the fifth power supply 350 is 1Hz to 100Hz range, 100Hz to 1KHz range, 1KHz to 10KHz range, 10KHz to 1MHz range, 1MKHz to 100MHz range, 100MKHz to 10GHz range.
  • FIG. 10E is a schematic diagram showing a sixth power supply supplying power to a quantum energy generating coil formed using an electroluminescence device on the surface of the material shown in FIG. 12K.
  • the sixth The power supply 360 includes the power supply unit 361 , an overload detection unit 362 , a voltage adjustment unit 363 , a frequency modulation unit 364 , a magnetic field detection sensor 364a , and an EL driving unit 365 .
  • the frequency modulator 364 is connected to the magnetic field detection sensor 356a installed on one side of the wall in the specific space, and receives magnetic field information of the specific space from the magnetic field detection sensor 356a.
  • the voltage adjuster reduces the voltage in the range of 10 to 20V, and converts the reduced voltage to the frequency modulator.
  • the power applied to the quantum energy generating coil by the signal oscillating in each of the oscillation circuits (not shown) in two or more oscillation circuits built in the frequency modulator 364 is a pulse width modulation signal.
  • the DC power is converted into AC power and supplied to the EL device 365 and the quantum energy generating coil, and the overload detection unit 362 measures the amount of current applied to the quantum energy generating coil during operation in real time, and is greater than or equal to the reference value. In this case, the power is cut off, and if the amount of current is less than the reference value, the power is supplied by electrically connecting the circuit.
  • the modulation range of the frequency in the sixth power supply 360 is 1Hz to 100Hz range, 100Hz to 1KHz range, 1KHz to 10KHz range, 10KHz to 1MHz range, 1MKHz to 100MHz range, 100MKHz to 10GHz range.
  • the battery which is a power supply not shown, is a lead-acid battery (Pb) battery, nickel cadmium (Ni-cd) battery, nickel hydride (Ni-Mh) battery, lithium ion (Ni-ion) battery, lithium ion battery, which are easily available in the market.
  • Pb lead-acid battery
  • Ni-cd nickel cadmium
  • Ni-Mh nickel hydride
  • Li-ion battery lithium ion battery
  • Li ion battery lithium ion battery, which are easily available in the market.
  • Polymer (LiPB) batteries and lithium iron phosphate (LiFePO4) batteries are selected and used. In terms of stability and capacity, batteries, lithium ion polymer (LiPB) batteries, and lithium iron phosphate (LiFePO4) batteries are suitable.
  • the power supply for supplying pulsed power to the quantum energy generating coil is a first power supply 310, a second power supply 320, a third power supply ( 330), the fourth power supply 340, the fifth power supply 350, and the sixth power supply 360 are not limited to, and the quantum energy generating coil (first, The second quantum energy generating coil) can be used if it can generate an electromagnetic field in the form of a pulse by supplying power in the form of a pulse.
  • the material of the first quantum energy generating coil and the second quantum energy generating coil is used by selecting any one material from conductive silver, copper, brass, bronze, nickel, gold, and the like.
  • the conducting wire uses a high-voltage wire and a low-voltage wire.
  • the power supply 300 for supplying the pulse-type power and the immediate source to the quantum energy generating coil is a first power supply 310 , a second power supply 320 , a third power supply 330 , and a fourth power supply.
  • 340 , the fifth power supply 350 , the sixth power supply 360 , and the battery (not shown) are not limited thereto.
  • pulse-type power or DC power is supplied to the quantum energy generating coil of the present invention, but the frequency modulation range is in the range of 1Hz to 100Hz, 100Hz to 1KHz, 1KHz to 10KHz, 10KHz to 1MHz, 1MKHz to 100MHz range, 100MKHz to 10GHz range, the low voltage applied to the quantum energy generating coil is in the range of 3V to 240V for AC power or DC power, and the power supply for supplying power to the range of high voltage power from 380 to 500KV can be used.
  • the original name of electromagnetic wave is electromagnetic wave, and waves composed of electric and magnetic fields repeat each other and spread at the speed of light in the atmosphere.
  • Electromagnetic waves are transmitted through photons and are divided into radio waves, infrared rays, visible rays, ultraviolet rays, X-rays, and gamma rays according to the length of the wavelength.
  • Electromagnetic waves are classified according to frequency and wavelength, and frequency means the number of waves vibrating in one second, and the unit is expressed in Hz (hertz).
  • Wavelength refers to the space between crests (troughs) and crests (troughs) when a certain wave periodically and repeatedly travels.
  • the health hazard is evaluated by referring to the indoor air quality pollution level measured and announced by the indoor air quality measuring institution, and the operation program of the control unit of the power supply (310,320,330,340,350,360) is written based on the evaluation result.
  • Frequency modulation range in the power supply that supplies power to the quantum energy generating coil formed on the surface of the material is written based on the evaluation result.
  • the health hazard assessment process is divided into hazard identification, dose response assessment, exposure assessment, and risk characterization.
  • PDA Point Estimate Analysis
  • MCA Monte Carlo Analysis
  • PDFs Probabilistic Density Functions
  • the calculation of the cancer risk (CR:Canser Risk) and the hazard index (Hi:Hazard Index) is the potential dose for inhalation processes such as respiration and ingestion, that is, the amount of pollutants according to time change.
  • the cumulative amount for the product of the concentration and the inhalation rate of the medium is used, and the relation is as follows.
  • Dpot is the potential dose
  • IR(t) is the inhalation rate
  • the intake or respiration rate is the potential dose
  • t1-t2 is an exposure time (ED).
  • ADDs is Average Daily Doses ( mg/kg-day )
  • C Concentration ( mg/m3 )
  • IR Inhalation Rate ( m3/day )
  • BW Body Weight (kg)
  • AT Average Time ( year ).
  • LADs Lifetime Average Daily Doses
  • An essential condition for conducting health risk assessment due to inhalation of indoor air pollutants in a specific space is the amount of exposure using exposure factors (weight, respiratory rate, life expectancy, exposure time, and frequency of exposure) that can reflect various characteristics of the population.
  • exposure factors weight, respiratory rate, life expectancy, exposure time, and frequency of exposure
  • Composite function by dividing the Hazard Index (HI) level into 4 to 7 levels with 25%, 50%, 75%, 100% or 0%, 25%, 50%, 70%, 90%, 95%, 100%
  • HI Hazard Index
  • dose-response data is used for dose measurement. Assuming no carcinogenic effects and no instantaneous exposure of acute effects, an average exposure or dose assessment for the exposure cycle is sufficient, which is the average potential dose for body weight and average time with Average Daily Doses (ADDs). Calculate using
  • the first quantum energy generating device 371 is a thin white paper, Sagoji, Yusamji, Taemi Basin, Sannaeji, Wansanji, Kapyeongji, Gyeonyangji, etc. are thick and strong paper, and each paper that is made of two or more layers of paper is small wallpaper, diagonal paper, inner wall paper, and the thickness is small.
  • Jangji of slightly thick paper is Taejangji, Youngchangji, Daejangji, Nongseonji, Ipmoji, Saefuji, Exterior paper, Hejongjungji, Shijiji, and Hwanhonji, jade colored paper, red paper, yellow which are recycled paper such as insect repellent paper.
  • a plurality of first materials in which quantum energy generating coils (first and second quantum energy generating coils) are formed are partitioned into a specific space so that the winding directions of the quantum energy generating coil are opposite to each other, or the first Attach the material in which the quantum energy generating coil of the quantum energy generating device 300A is formed, and spaced apart from each other and facing two sides (left, right, front, rear, top, bottom), or 4 sides, or 6 sides of the material surface Installed so that the winding directions of the plurality of quantum energy generating coils printed on are opposite to each other, and the first power supply 310 installed on one side of the plane of the first material or installed on one external side (not shown), the first 2 power supply 320, the third power supply 330, the fourth power supply 340, the fifth power supply 350, the sixth power advanced unit 360, any one of the battery (not shown) is selected
  • power is supplied to the plurality of first and second quantum energy generating coils through a conductive wire (not shown) with a pulse-type power
  • the modulation range of the frequency in the first, second, third, fourth, fifth, and sixth power supplies 310, 320, 330, 340, 350, 360 is 1 Hz to 100 Hz range, 100 Hz to 1 KHz range, 1 KHz to 10 KHz range, 10 KHz to 1 MHz range, 1 MKHz to 100 MHz range, 100 MKHz to 10 GHz range.
  • the second quantum energy generating device 372 is PVC, PE, PC, acrylic,
  • the second material 120 selected from among non-conductive materials such as Bakelite, glass fiber molded foam (FRP), Teflon, and urethane, a quantum energy generating coil formed on the surface of the second material 120, quantum energy generation Consists of a power supply 300 for supplying power to the coil, and the method of irradiating quantum energy to a specific space is a method of irradiating a plurality of second materials with quantum energy generating coils (first and second quantum energy generating coils) formed on the surface.
  • a material in which the quantum energy generating coil of the first quantum energy generating device 300A is formed is attached to the surface of a partitioned wall or partitioned into a specific space so that the winding directions of the quantum energy generating coil are opposite to each other, but spaced apart from each other and facing each other
  • the beam is installed so that the winding directions of a plurality of quantum energy generating coils printed on the material surface on 2 sides (left, right or front, rear, top, bottom), or 4 or 6 sides are opposite to each other, and the second
  • the first power supply 310, the second power supply 320, the third power supply 330, the fourth power supply 340 which are installed on one side of the material plane or installed on the external side (not shown);
  • the 5th power supply 350, the 6th power supply high-end unit 360, the battery (not shown) of any one of the selected power supply pulse type power or DC power output from the battery (not shown) is a lead wire
  • the modulation range of the frequency in the first, second, third, fourth, fifth, and sixth power supplies is 1Hz to 100Hz range, 100Hz to 1KHz range, 1KHz to 10KHz range, 10KHz to 1MHz range, 1 MKHz to 100 MHz range, 100 MKHz to 10 GHz range.
  • FIG. 12B is a cross-sectional view showing a third quantum energy generator for irradiating an electromagnetic field and quantum energy in a specific space.
  • Cu Zinc (Zn), Tin (Sn), Stainless Steel (STS304, STS316), Aluminum (AL), Titanium (Ti), Nickel (Ni), Platinum (Pt), Hastalloy, Insulation or insulation is attached
  • It consists of a third material 130 in which any one material is selected from among metal materials such as a panel, a quantum energy generating coil formed on the surface of the third material 130, and a power supply 300 supplying power to the quantum energy generating coil
  • the method of irradiating quantum energy to a specific space is to insert a plurality of third materials in which quantum energy generating coils (first and second quantum energy generating coils) are formed into a specific space so that the winding directions of the quantum energy generating coil are opposite to each other.
  • a material in which a quantum energy generating coil of the first quantum energy generating device 300A is formed is attached to the partitioned or partitioned surface of the wall, and two sides facing each other (left, right or front, rear, top, bottom) are spaced apart from each other.
  • pulsed electromagnetic fields generated at an angle of 90 degrees to the flow direction of current in the first and second quantum energy generating coils are generated in opposite directions to each other, At the center distance between the second quantum energy generating coils, electromagnetic fields in opposite directions overlap and annihilate, so that pulsating quantum Energy is generated and ir
  • the modulation range of the frequency in the first, second, third, fourth, fifth, and sixth power supplies 310, 320, 330, 340, 350, 360 is 1 Hz to 100 Hz range, 100 Hz to 1 KHz range, 1 KHz to 10 KHz range, 10 KHz to 1 MHz range, 1 MKHz to 100 MHz range, 100 MKHz to 10 GHz range.
  • FIG. 12c is a cross-sectional view showing a fourth quantum energy generating device for irradiating an electromagnetic field and quantum energy in a specific space.
  • the method of irradiating quantum energy to a specific space is composed of the supply device 300, and the winding directions of the quantum energy generating coil are mutually connected to a plurality of fourth materials in which the quantum energy generating coils (first and second quantum energy generating coils) are formed.
  • a material in which the quantum energy generating coil of the first quantum energy generating device 300A is formed is attached to the surface of the wall partitioned into a specific space or partitioned to be in the opposite direction, and two surfaces (left, right, or front) facing each other are spaced apart from each other.
  • the winding directions of a plurality of quantum energy generating coils printed on the surface of the material are installed to be opposite to each other, and installed at a certain distance from the material, or 4
  • a pulsed electromagnetic field is generated at an angle of 90 degrees to the current flow direction in the first and second quantum energy generating coils.
  • the electromagnetic fields in opposite directions are generated in opposite directions and overlap and disappear at the center distance between the first and second quantum energy generating coils, and pulsating quantum energy is
  • the modulation range of the frequency in the first, second, third, fourth, fifth, and sixth power supplies 310, 320, 330, 340, 350, 360 is 1 Hz to 100 Hz range, 100 Hz to 1 KHz range, 1 KHz to 10 KHz range, 10 KHz to 1 MHz range, 1 MKHz to 100 MHz range, 100 MKHz to 10 GHz range.
  • the fifth quantum energy generator 375 is a concrete wall, tile, etc., block , Board, stone (marble exterior material, etc.), the fifth material 150 of which any one material is selected from inorganic materials, a quantum energy generating coil formed on the surface of the fifth material 150, a quantum energy generating coil Power supplying power It consists of a supply device, and the method of irradiating quantum energy in a specific space is a plurality of fifth materials in which quantum energy generating coils (first and second quantum energy generating coils) are formed so that the winding direction of the quantum energy generating coil is opposite to each other.
  • quantum energy generating coils first and second quantum energy generating coils
  • a material in which a quantum energy generating coil of the first quantum energy generating device 300A is formed is attached to the surface of a wall partitioned into a specific space or partitioned as possible, and two surfaces (left, right or front and rear, spaced apart and facing each other) up, down), or on 4 or 6 sides, the winding directions of a plurality of quantum energy generating coils printed on the surface of the material are installed to be opposite to each other, and installed at a certain distance from the material, or the fifth material plane
  • the first power supply 310, the second power supply 320, the third power supply 330, the fourth power supply 340, the fifth power supply 350, the sixth power supply unit 360 installed on one side ), a plurality of first and second quantum power through a conducting wire (not shown) of a pulse-type power generated from a power supply selected from among batteries (not shown) or DC power output from a battery (not shown).
  • a pulsed electromagnetic field generated at an angle of 90 degrees to the current flow direction in the first and second quantum energy generating coils is generated in opposite directions, and the center between the first and second quantum energy generating coils is At a distance, electromagnetic fields in opposite directions overlap and disappear, generating pulsating quantum energy in a zero magnetic field and irradiating it into the indoor space.
  • the modulation range of the frequency in the first, second, third, fourth, fifth, and sixth power supplies 310, 320, 330, 340, 350, 360 is 1 Hz to 100 Hz range, 100 Hz to 1 KHz range, 1 KHz to 10 KHz range, 10 KHz to 1 MHz range, 1 MKHz to 100 MHz range, 100 MKHz to 10 GHz range.
  • the sixth material 160 in which any one material is selected from fiber materials such as fiber, regenerated fiber, synthetic fiber, inorganic fiber, etc., a quantum energy generating coil formed on the plane of the sixth material 160, a quantum energy generating coil power supply Consists of a supply 300, the method of irradiating quantum energy in a specific space is a plurality of sixth materials in which the quantum energy generating coil (first, second quantum energy generating coil) is formed, the winding directions of the quantum energy generating coil are mutually
  • a material in which the quantum energy generating coil of the first quantum energy generating device 300A is formed is attached to the surface of the wall partitioned into a specific space or partitioned to be in the opposite direction, and two surfaces (left, right, or front) facing each other are spaced apart from each other.
  • the winding directions of a plurality of quantum energy generating coils printed on the surface of the material are installed to be opposite to each other, and installed at a certain distance from the material, or
  • the first power supply 310, the second power supply 320, the third power supply 330, the fourth power supply 340, the fifth power supply 350, the sixth power supply installed on one side of the 5 material plane A plurality of first, pulse-type power generated from a power supply of which any one model is selected among the advanced machine 360 and the battery (not shown) or DC power output from the battery (not shown) through a conducting wire (not shown)
  • pulsed electromagnetic fields generated at an angle of 90 degrees to the flow direction of current in the first and second quantum energy generating coils are generated in opposite directions to each other, and the first and second quantum energy are generated At the center distance between the coils, electromagnetic fields in opposite directions overlap and disappear, generating and irradiating pulsating quantum energy in a
  • the modulation range of the frequency in the first, second, third, fourth, fifth, and sixth power supplies 310, 320, 330, 340, 350, 360 is 1 Hz to 100 Hz range, 100 Hz to 1 KHz range, 1 KHz to 10 KHz range, 10 KHz to 1 MHz range, 1 MKHz to 100 MHz range, 100 MKHz to 10 GHz range.
  • the seventh quantum energy generator 377 is a thin plate glass, a thick plate glass, and transparent polishing.
  • a power supply 300 that supplies power to a seventh material 170 from which any one material is selected from plate glass, sun shielding glass, and blocking glass, a quantum energy generating coil formed on the plane of the seventh material 170, and a quantum energy generating coil
  • the method of irradiating quantum energy into a specific space is specific so that the winding directions of the quantum energy generating coils are opposite to each other in a plurality of seventh materials on which the quantum energy generating coils (first, second quantum energy generating coils) are formed.
  • a material in which a quantum energy generating coil of the first quantum energy generating device 300A is formed is attached to the surface of a wall partitioned by space or partitioned, and two sides (left, right or front, rear, top, Lower), or a plurality of quantum energy generating coils printed on the surface of the material on 4 or 6 sides are installed so that the winding directions are opposite to each other, and installed to be spaced apart from the material by a certain distance, or one side of the seventh material plane installed in the first power supply 310, the second power supply 320, the third power supply 330, the fourth power supply 340, the fifth power supply 350, the sixth power supply unit 360,
  • a plurality of first and second quantum energies are generated through a conducting wire (not shown) by using a pulse-type power generated from a power supply of any one of the batteries (not shown) or a DC power output from the battery (not shown).
  • a pulsed electromagnetic field generated at an angle of 90 degrees to the current flow direction is generated in the first and second quantum energy generating coils in opposite directions, and at the center distance between the first and second quantum energy generating coils. Electromagnetic fields in opposite directions overlap and disappear, generating pulsating quantum energy in a zero magnetic field and irradiating it into the indoor space.
  • the modulation range of the frequency in the first, second, third, fourth, fifth, and sixth power supplies 310, 320, 330, 340, 350, 360 is 1 Hz to 100 Hz range, 100 Hz to 1 KHz range, 1 KHz to 10 KHz range, 10 KHz to 1 MHz range, 1 MKHz to 100 MHz range, 100 MKHz to 10 GHz range.
  • the eighth quantum energy generating device 378 is (polyimide, Quantum energy generating coil formed on the plane of the eighth material, the eighth material selected from among PET (polyethyleneterephthalate), PMMA (polymethyl methacrylate), PDMS (polymethylsiloxane), polyester film, polyethylene film, polypropylene film, and PVC film , Consists of a power supply 300 for supplying power to a quantum energy generating coil, and a plurality of eighth materials in which quantum energy generating coils (first and second quantum energy generating coils) are formed in the winding directions of the quantum energy generating coils are mutually
  • a material in which the quantum energy generating coil of the first quantum energy generating device 300A is formed is attached to the surface of the wall partitioned into a specific space or partitioned to be in the opposite direction, and two surfaces (left
  • the winding directions of a plurality of quantum energy generating coils printed on the surface of the material are installed to be opposite to each other, and installed at a certain distance from the material, or
  • pulsed electromagnetic fields generated at an angle of 90 degrees to the flow direction of current in the first and second quantum energy generating coils are generated in opposite directions, and the first and second quantum energy generating coils are generated in opposite directions.
  • electromagnetic fields in opposite directions overlap and disappear, and pulsating quantum energy is
  • Any one of the material 130, the fourth material 140, the fifth material 150, the sixth material 160, the seventh material 170, and the eighth material 180 is selected and printed on the material surface
  • the winding direction of the quantum energy generating coil is installed to face each other, and the power supply is installed at a certain distance from the material or installed on one side of the surface of the material, that is, a step-down (step-up) transformer 321, a rectifier circuit 322, an input module ( 323a), arithmetic module 323b, and PWM (pulse width modulation) control method and pulse frequency modulation (PFM) and pulse frequency (density) control (PDM), pulse repetition rate control (PRR) functions Home appliances installed in the space in the magnetic field detection sensor 325 of the second power supply 220 consisting of the control unit 323, the current
  • the first and second quantum energy generating coils of the quantum energy generator by analyzing detailed information such as control method and pulse frequency modulation PFM (pulse frequency modulation), pulse frequency (density) control (PDM), and pulse repetition rate control (PRR)
  • PFM pulse frequency modulation
  • PDM pulse frequency control
  • PRR pulse repetition rate control
  • the control unit 223 By controlling the step-down (step-up) transformer 321 and the rectifier circuit 322, so as to generate a current value proportional to When supplied, the first quantum energy generator
  • the magnetic field generated by the first and second quantum energy generating coils is irradiated into the space and overlaps and disappears with the magnetic field generated by home appliances or industrial devices installed inside the space to generate quantum energy in a zero magnetic field state.
  • the magnetic field detection sensor 325 is a SQUID (Super conducting Quantum Interference Device) sensor, nuclear magnetic resonance (NMR), atomic magnetic resonance (AMR) sensor, fluxgate (Fluxgate) sensor, MR (You can select and use any one of Magnetic Resistance Sensor, MI (Magnetic Impedance) Sensor, Hall Effect Sensor, Optical Fiber Magnetic Sensor, and Search Coil.
  • SQUID Super conducting Quantum Interference Device
  • NMR nuclear magnetic resonance
  • AMR atomic magnetic resonance
  • Fluxgate Flugate
  • MR Magnetic Resistance Sensor
  • MI Magnetic Impedance
  • Hall Effect Sensor Hall Effect Sensor
  • Optical Fiber Magnetic Sensor and Search Coil.
  • the modulation range of the frequency in the first, second, third, fourth, fifth, and sixth power supplies 310, 320, 330, 340, 350, 360 is 1 Hz to 100 Hz range, 100 Hz to 1 KHz range, 1 KHz to 10 KHz range, 10 KHz to 1 MHz range, 1 MKHz to 100 MHz range, 100 MKHz to 10 GHz range.
  • the 9a quantum energy generating device 379a is a first material 110, Any of the second material 120, the third material 130, the fourth material 140, the fifth material 150, the sixth material 160, the seventh material 170, and the eighth material 180 Solenoid coil, toroid coil, cusp coil, Helm Heltz coil, gradient saddle coil, uniform saddle coil, toroid coil, trigger coil, zigzag form in which one material is selected and adhesive is applied or sewn on the surface of the selected material of coils (up and down, left and right), extension coils, motor stator coils, square coils, RF coils, toroidal coils, Tesla coils, Mobius coils, Caduceus coils ( Select any one coil shape from among Caduceus Coil), Rogoski coil shapes and combinations of these shapes, and select iron (Fe), copper (Cu), zinc (Z
  • any one of the It consists of a quantum energy generating coil (first, first quantum energy generating coil) processed into the selected coil shape, and a power supply 300 for supplying power to the quantum energy generating coil,
  • the method of irradiating quantum energy in a specific space is a quantum
  • the first quantum energy generating device ( 300A) attach a material with a quantum energy generating coil to the surface, but spaced apart from each other and facing two sides (left, right, front, rear, top, bottom), or 4 or 6 sides printed on the material surface Installed so that the winding directions of the plurality of quantum energy generating coils are opposite to each other, and spaced apart from the material by a certain distance. or or
  • the first power supply 310, the second power supply 320, the third power supply 330, the fourth power supply 340, the fifth power supply 350, the sixth power supply installed on one side of the material plane (360), a plurality of first, second, pulse-type power generated by a power supply selected from among batteries (not shown) or DC power output from a battery (not shown) through a conducting wire (not shown) 2
  • a pulsed electromagnetic field generated at an angle of 90 degrees to the current flow direction is generated in the first and second quantum energy generating coils in opposite directions, and the first and second quantum energy generating coils Electromagnetic fields in opposite directions overlap and disappear at the central distance between them, and pulsating quantum energy is generated in the zero magnetic field and irradiated into the indoor space.
  • the modulation range of the frequency in the first, second, third, fourth, fifth, and sixth power supplies 310, 320, 330, 340, 350, 360 is 1 Hz to 100 Hz range, 100 Hz to 1 KHz range, 1 KHz to 10 KHz range, 10 KHz to 1 MHz range, 1 MKHz to 100 MHz range, 100 MKHz to 10 GHz range.
  • the 9b quantum energy generating device 379b is a first material 110, On the surface of the second material 120, the third material 130, the fourth material 140, the fifth material 150, the sixth material 160, the seventh material 170, the eighth material 180
  • adhesive solenoid coil, toroid coil, cusp coil, helm-heltz coil, gradient saddle coil, uniform saddle coil, toroid coil, trigger coil, zigzag coil (up and down, left and right), extension coil, electric motor Shapes for stator coils, square coils, RF coils, Troydal coils, Tesla coils, Mobius coils, Caduceus coils, Rogoski coil shapes and these EL Wire manufactured using a method of selecting one coil shape from among the shapes in which the shapes are combined and winding a quantum energy generating coil with a wire of a conductive material covered with
  • a pulsed electromagnetic field generated at an angle of 90 degrees to the current flow direction is generated in the first and second quantum energy generating coils in opposite directions, and the first and second quantum energy generating coils Electromagnetic fields in opposite directions overlap and disappear at the central distance between them, generating pulsating quantum energy in a zero magnetic field and irradiating it into the indoor space.
  • the modulation range of the frequency in the first, second, third, fourth, fifth, and sixth power supplies 310, 320, 330, 340, 350, 360 is 1 Hz to 100 Hz range, 100 Hz to 1 KHz range, 1 KHz to 10 KHz range, 10 KHz to 1 MHz range, 1 MKHz to 100 MHz range, 100 MKHz to 10 GHz range.
  • the 9c quantum energy generating device 379c is a first material 110, Selected from among the second material 120, the third material 130, the fourth material 140, the fifth material 150, the sixth material 160, the seventh material 170, and the eighth material 180 It consists of one material, a quantum energy generating coil to which the eighth quantum energy generating device manufactured by the method shown in FIG.
  • a power supply 300 for supplying power to the quantum energy generating coil In the method of irradiating quantum energy into space, a plurality of materials on which the quantum energy generating coil (first, second quantum energy generating coil) is formed is partitioned or partitioned into a specific space so that the winding directions of the quantum energy generating coil are opposite to each other.
  • a material in which the quantum energy generating coil of the first quantum energy generating device 300A is formed is attached to the surface of the wall that has become , or installed so that the winding directions of a plurality of quantum energy generating coils printed on the surface of the material on six sides are opposite to each other, and installed at a certain distance from the material, or
  • a pulsed electromagnetic field generated at an angle of 90 degrees to the current flow direction is generated in the first and second quantum energy generating coils in opposite directions, and the first and second quantum energy generating coils Electromagnetic fields in opposite directions overlap and disappear at the central distance between them, generating pulsating quantum energy in a zero magnetic field and irradiating it into the indoor space.

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Abstract

Un matériau quelconque est choisi parmi un premier matériau (papier), un deuxième matériau (matériau non conducteur tel que du PVC), un troisième matériau (métal conducteur tel que du cuivre (Cu)), un quatrième matériau (bois tel que du contreplaqué), un cinquième matériau (matériau inorganique tel que celui de parois en béton), un sixième matériau (matériau fibreux), un septième matériau (verre et analogue) et un huitième matériau (matériau souple transparent tel qu'un polyimide) auquel est sélectivement fixée n'importe quelle forme de bobine parmi les formes de : bobine de solénoïde, bobine toroïdale, bobine cuspidée, bobine de Helmholtz, bobine de gradient en selle de cheval, bobine en selle de cheval uniforme, bobine toroïdale, bobine de déclenchement, bobine en zigzag (verticale, horizontale), bobine extensible, bobine formée pour un stator de moteur, bobine plate, bobine RF, bobine troïdale, bobine Tesla, bobine de Möbius, bobine en caducée et bobine de Rogoski, ou une forme combinée de ces dernières. Sur la surface du matériau, des bobines de génération d'énergie quantique sont fabriquées par l'intermédiaire de procédés comprenant : la sélection d'un procédé d'impression quelconque parmi la flexographie, la sérigraphie, l'offset, la rotogravure, l'impression par jet d'encre et des types d'impression à sec en vue d'imprimer dans une forme sélectionnée, avec de l'encre conductrice, une forme de bobine quelconque parmi les formes de : bobine de solénoïde, bobine toroïdale, bobine cuspidée, bobine de Helmholtz, bobine de gradient en selle de cheval, bobine en selle de cheval uniforme, bobine toroïdale, bobine de déclenchement, bobine en zigzag (verticale, horizontale), bobine extensible, bobine formée pour un stator de moteur, bobine plate, bobine RF, bobine troïdale, bobine Tesla, bobine de Möbius, bobine en caducée et bobine de Rogoski, ou une forme combinée de ces dernières, et de sécher celle-ci, ce qui permet de former les bobines de génération d'énergie quantique sur la surface de matériau choisie ; le traitement d'un métal conducteur tel que du cuivre (Cu) pour lui donner la forme des bobines de génération d'énergie quantique choisies en vue de les fixer sur la surface de matériau choisie ; l'application d'un adhésif sur la surface de la surface choisie, puis l'enroulement dans la forme des bobines de génération d'énergie quantique à l'aide d'un fil électrique constitué du matériau métallique conducteur revêtu en vue d'obtenir la forme choisie parmi les formes des bobines de génération d'énergie quantique ; et la fixation, sur la surface de matériau choisie, d'un dispositif électroluminescent fabriqué dans la forme des bobines de génération d'énergie quantique choisies. Un générateur d'énergie quantique comprend : un générateur d'énergie quantique (300) ayant un dispositif d'alimentation électrique d'un type quelconque choisi parmi un premier dispositif d'alimentation électrique, un deuxième dispositif d'alimentation électrique, un troisième dispositif d'alimentation électrique, un quatrième dispositif d'alimentation électrique, un cinquième dispositif d'alimentation électrique, un sixième dispositif d'alimentation électrique et une batterie ; un générateur de type bremsstrahlung (400A) ayant un tube en verre scellé, une anode, un dispositif d'alimentation électrique pour une anode, une première cathode, un dispositif d'alimentation électrique haute tension destiné à appliquer une haute tension à la première cathode, une seconde cathode, un dispositif d'alimentation électrique pour la seconde cathode et une couche d'émission d'énergie quantique ; et un second générateur d'énergie quantique (400B) ayant un tube en verre scellé, une anode, une anode, une électrode de grille, une première cathode, une plaque cible de rayons X, une seconde cathode, une couche d'émission d'énergie quantique, une anode, un premier dispositif d'alimentation électrique pour la première cathode, un deuxième dispositif d'alimentation électrique destiné à fournir de l'électricité à l'électrode de grille et un troisième dispositif d'alimentation électrique pour la seconde cathode. Si le générateur d'énergie quantique, qui est disposé sur deux surfaces internes ou quatre surfaces ou six surfaces dans des espaces particuliers, fournit, aux bobines de génération d'énergie quantique fabriquées, de l'électricité générée par les dispositifs d'alimentation électrique en tant que pluralité d'énergies quantiques correspondantes, des champs électriques à impulsions sont générés dans les bobines de génération d'énergie quantique respectives dans des directions d'enroulement opposées, et les champs électriques à impulsions opposés dans le centre d'un espace se chevauchent et disparaissent de telle sorte que l'énergie quantique est générée dans un état de champ magnétique nul, et l'énergie quantique est émise dans les espaces pour éliminer, selon des modes de commande, des ondes électromagnétiques générées par des dispositifs électriques/dispositifs électroniques disposés dans les espaces et éliminer des germes nuisibles dans les espaces. Ainsi, des champs électromagnétiques pouvant favoriser la santé sont générés et une énergie quantique améliorant la santé en résonant avec le champ magnétique du corps lui-même est émise.
PCT/KR2022/001683 2021-02-03 2022-02-03 Matériaux ayant une bobine de génération d'énergie quantique imprimée ou fixée sur leurs surfaces, et générateur d'énergie quantique destiné à émettre de l'énergie quantique dans un espace spécifique divisé par des matériaux Ceased WO2022169261A2 (fr)

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