Device and method using natural mineral ceramic for measuring electromagnetic wave energy of solution to be measured

Abstract

The present invention relates to a device and a method using natural mineral ceramic for measuring electromagnetic wave energy of a solution to be measured. The method is performed by the device for measuring electromagnetic wave energy and comprises: a natural mineral ceramic preparation step of preparing natural mineral ceramic; a natural mineral ceramic application step of placing the natural mineral ceramic and a solution to be measured into a measurement container, and maintaining the temperature of the solution to be measured at a preset temperature by using a temperature control device; an electromagnetic wave energy measurement step of causing a reaction between the natural mineral ceramic and the solution to be measured while irradiating the natural mineral ceramic and the solution to be measured with reaction-inducing light via a light irradiation device, thereby imaging electromagnetic wave photons emitted from the natural mineral ceramic, and measuring, via a power sensor, negative electrons flowing through the solution to be measured; and an electromagnetic wave energy measurement analysis step of detecting and analyzing electromagnetic wave photons from a camera image to calculate the average number of detected electromagnetic wave photons, generating report information including at least one of the average number of detected electromagnetic wave photons, the result of the negative electron measurement, and the camera image, and providing the report information to a user.

Description

Device and method for measuring electromagnetic wave energy of a target solution using natural mineral ceramics

[0001] The present invention relates to a device and method for measuring electromagnetic wave energy of a solution to be measured using a natural mineral ceramic, which enables the electromagnetic wave energy of the solution to be measured to be determined using the natural mineral ceramic.

[0002] Ceramics made from natural minerals with electromagnetic properties are widely used in all fields of industry, including advanced industries such as nuclear fusion and IT semiconductors, as well as general industries and the bio industry.

[0003] The constituents of natural minerals can possess electronic properties. Negatively charged constituents can be used as cathodes, while positively charged constituents can be utilized as anodes. In particular, technologies that utilize the cathodic properties of natural minerals to cluster water are being developed and utilized.

[0004] Recently, Professor Gerald Pollack of the University of Washington in the United States scientifically proved that when a ceramic material with excellent hydrophilicity is placed in water and exposed to infrared rays, the negative electrons emitted from the ceramic material react with the infrared rays to create cluster water with a dense interfacial structure in which hydrogen ions of water (H2O) molecules are bonded to each other, and he has published numerous papers and books defining EZ water (H3O2) at this time as the fourth phase (or stage) of water.

[0005] In addition, Pollock reacted the infrared-emitting polymer material called Nafion with water to create EZ water (H3O2) with an interface structure, which has been scientifically proven through long-term experimental research and has become a new water in the institutional system. It is already being developed and used as a physiologically active functional water in the United States and Europe.

[0006] According to experimental results confirmed by experts studying water, including Pollock, when Nafion, a polymer material, is put into water, the weak infrared rays emitted from Nafion react with water molecules, and as a result of the reaction between the infrared rays and water, the hydrogen ions of the water molecules combine with each other, causing one hydrogen ion to detach and be pushed out of the water along with the contaminants it was bound to.

[0007] In the region where hydrogen ions in water combine with each other, negative electrons are generated, and the water in the region where negative electrons are generated has a lower density and surface tension. Pollock named this region of water the structured interfacial region, and defined the cluster water in the structured interfacial region as EZ water. On the other hand, he defined the region of unstructured normal water as the non-interfacial region where positive electrons exist in water.

[0008] In particular, Pollock conducted an experiment on the contact and non-contact treatment of Kelby ceramic, a specially manufactured mineral-based composite hydrophilic ceramic material extracted from natural minerals. The Kelby ceramic material manufactured from natural minerals has a zeta potential of -37.74 mV, which means it is a material with inherent cathodic characteristics, and when treated with water, it was confirmed to emit stronger negative electrons than the polymer material Nafion and high-density infrared rays in the 220 nmP to 800 nmP range.

[0009] The results of an EZ water manufacturing experiment in which the Kelby material absorbs UV in the 270nmP region in water and quickly changes water into a dense interfacial cluster structure were published in a paper in Hindawi and PLOS-ONE.

[0010] However, there is a limitation that a method for capturing the plasma phenomenon and electromagnetic wave energy of EZ water in photographs or videos has not yet been developed or proposed.

[0011] The development of a new imaging method that can visually capture and confirm the photons, electromagnetic energy emitted from special water with a changed structure, will be a significant achievement that will provide experts in the scientific community with groundbreaking evidence and motivation to elucidate the mechanism of energy in special water that generates negative electrons.

[0012] Furthermore, if consumers can be made aware of the beneficial reductive electromagnetic energy from natural ceramic materials, it will provide incentives to companies worldwide that process natural minerals and apply ceramic materials to industry, thereby contributing significantly to the revitalization of the industry.

[0013]

[0014] Accordingly, in order to solve the above problems, the present invention provides an apparatus and method for measuring electromagnetic wave energy of a measurement target solution using a natural mineral ceramic, which can determine the electromagnetic wave energy of the measurement target solution by measuring and analyzing electromagnetic wave photons emitted by the natural mineral ceramic and negative electrons flowing through the measurement target solution when the natural mineral ceramic and the measurement target solution react with each other.

[0015] The purpose of the present invention is not limited to the purposes mentioned above, and other purposes not mentioned will be clearly understood by those skilled in the art from the description below.

[0016] As a means for solving the above problem, according to one embodiment of the present invention, a method for measuring electromagnetic wave energy of a measurement target solution using a natural mineral ceramic of an electromagnetic wave energy measurement device is provided, the method comprising: a natural mineral ceramic preparation step of preparing a natural mineral ceramic; a natural mineral ceramic application step of putting the natural mineral ceramic and the measurement target solution into a measurement container, and then maintaining the temperature of the measurement target solution at a preset temperature using a temperature control device; an electromagnetic wave energy measurement step of irradiating a reaction-inducing light to the natural mineral ceramic and the measurement target solution using a light irradiation device, photographing electromagnetic wave photons emitted by the natural mineral ceramic when the natural mineral ceramic and the measurement target solution react with each other, and measuring negative electrons flowing through the measurement target solution using a power sensor; and an electromagnetic wave energy measurement analysis step of detecting and analyzing electromagnetic wave photons from a camera image to calculate an average detection count of electromagnetic wave photons, and then generating reporting information including at least one of the average detection count of electromagnetic wave photons, a negative electron measurement result, and a camera image to guide the user.

[0017] The above natural mineral ceramic preparation step is a step of preparing a mineral-based somatid mineral powder containing seven kinds of mineral components, silicon dioxide (SiO2), aluminum oxide (Al2O3), iron oxide (Fe2O3), magnesium oxide (MgO), potassium oxide (K2O), sodium triuranate (Na2O·3UO3), and calcium (Ca), and a magnetic component, independently or in combination; a step of mixing and stirring 10 to 50 parts by weight of a mineral-based somatid mineral powder, 10 to 48 parts by weight of a plant-based somatid concentrate, 1 to 2 parts by weight of a graphene powder, and 0.1 to 0.3 parts by weight of a magnetic powder, and then forming the mixture into a ceramic having a diameter of 2 mm to 30 mm and one of the shapes of a hexagon, a diamond, a triangle, a square, a pentagon, an octagon, and a pyramid; And it is characterized by including a step of manufacturing a natural mineral ceramic by firing the molded somatid mineral ceramic at a high temperature of 100 to 1,200℃.

[0018] The above measurement target solution is characterized by being EZ water, structured water, ionized water, hydrogen water, alkaline water, tap water, stream water, deionized water, purified water, distilled water, negatively charged structure water, electrolyzed water, salt water, carbonated water, hot spring water, mineral water, mineral spring water, deep sea water, raw water, seawater, purified water, saline water, groundwater, bedrock water, and coffee, beverage, alcoholic beverage, non-alcoholic beverage, or a liquid that is a mixture of two or more of these liquids.

[0019] The above reaction-inducing light has a light wavelength of any one of UV light, IR light, X-rays, and radiation, and is characterized in that it is emitted through any one of a mobile phone flash lamp, an LED lamp, a fluorescent lamp, an incandescent lamp, and a light bulb.

[0020] The above electromagnetic wave photon is characterized by having energy of 220 nmP to 1,800 nmP.

[0021] The above negative electrons are characterized by having a voltage of -40 mV to -300 mV.

[0022] The above measuring container is characterized in that it is manufactured from a polymer material, a metal material, a ceramic material, and a plant-based organic material including wood.

[0023] The above camera is characterized in that it is implemented as any one of a mobile phone camera, an SLR camera, a DSLR camera, a stereoscopic camera, an animation camera, an underwater camera, a high-speed camera, a mirrorless camera, a point-and-shoot camera, a compact camera, a high-end camera, a special camera, and a microscope.

[0024] The above camera is characterized by having a frame per second (FPS) adjustment function.

[0025]

[0026] As a means for solving the above problem, according to another embodiment of the present invention, a system for measuring electromagnetic wave energy of a measurement target solution using natural mineral ceramics is provided, including: a basket-shaped measurement container; a measurement target solution placed in the measurement container; a natural mineral ceramic placed in the measurement container; a temperature control device for maintaining the temperature of the measurement target solution at a preset temperature; a light irradiation device for irradiating the measurement target solution and the natural mineral ceramic with a reaction-inducing light implemented as any one of UV light, IR light, X-rays, and radiation; a measurement device for photographing electromagnetic wave photons emitted by the natural mineral ceramic when the measurement target solution and the natural mineral ceramic react with each other through a camera and measuring negative electrons flowing through the measurement target solution through a power sensor; and a control device for detecting and analyzing electromagnetic wave photons from a camera image to calculate an average detection count of electromagnetic wave photons, and then generating reporting information including at least one of the average detection count of electromagnetic wave photons, a negative electron measurement result, and a camera image to guide the user.

[0027] The present invention creates an environment in which a natural mineral ceramic and a solution to be measured can react with each other, and then measures and analyzes electromagnetic wave photons emitted by the natural mineral ceramic and negative electrons flowing through the solution to be measured, thereby enabling the electromagnetic wave energy of the solution to be measured to be accurately and easily determined.

[0028] FIG. 1 is a drawing illustrating a method for measuring electromagnetic wave energy of a measurement target solution using natural mineral ceramic according to one embodiment of the present invention.

[0029] FIG. 2 is a drawing illustrating an example of a natural mineral ceramic according to one embodiment of the present invention.

[0030] FIG. 3 is a diagram illustrating examples of electromagnetic wave photons according to one embodiment of the present invention.

[0031] FIG. 4 is a drawing illustrating an electromagnetic wave energy measuring device of a measurement target solution using natural mineral ceramic according to one embodiment of the present invention.

[0032]

[0033] Before describing the present disclosure in detail, the description method of the specification and drawings will be described.

[0034] First, the terms used in this specification and claims are general terms selected based on their functions in the various embodiments of the present disclosure. However, these terms may vary depending on the intentions of those skilled in the art, legal or technical interpretations, and the emergence of new technologies. Furthermore, some terms may have been arbitrarily selected by the applicant. These terms may be interpreted according to the meanings defined in this specification. In the absence of a specific definition, they may be interpreted based on the overall content of this specification and common technical knowledge in the relevant field.

[0035] Additionally, the same reference numbers or symbols in each drawing attached to this specification represent parts or components that perform substantially the same functions. For convenience of explanation and understanding, the same reference numbers or symbols are used in different embodiments. In other words, even if components with the same reference numbers are all depicted in multiple drawings, the multiple drawings do not necessarily represent a single embodiment.

[0036] Additionally, terms including ordinal numbers, such as "first," "second," etc., may be used in this specification and claims to distinguish between components. These ordinal numbers are used to distinguish identical or similar components from each other, and the use of these ordinal numbers should not be interpreted in a limited manner. For example, components associated with these ordinals should not be restricted in their order of use or arrangement by their numbers. If necessary, each ordinal number may be used interchangeably.

[0037] In this specification, singular expressions include plural expressions unless the context clearly dictates otherwise. In this application, terms such as "comprise" or "consist of" are intended to indicate the presence of a feature, number, step, operation, component, part, or combination thereof described in the specification, but should be understood not to preclude the possibility of the presence or addition of one or more other features, numbers, steps, operations, components, parts, or combinations thereof.

[0038] In the embodiments of the present disclosure, terms such as "module," "unit," "part," etc. are terms used to refer to components that perform at least one function or operation, and such components may be implemented as hardware or software, or a combination of hardware and software. In addition, a plurality of "modules," "units," "parts," etc. may be integrated into at least one part or chip and implemented as at least one processor, except in cases where each needs to be implemented as a separate, characteristic hardware.

[0039] Additionally, in the embodiments of the present disclosure, when a part is said to be connected to another part, this includes not only a direct connection but also an indirect connection through another medium. Furthermore, unless specifically stated otherwise, the statement that a part includes a certain component does not exclude other components, but rather implies that other components may be included.

[0040]

[0041] FIG. 1 is a drawing illustrating a method for measuring electromagnetic wave energy of a measurement target solution using natural mineral ceramic according to one embodiment of the present invention.

[0042] Referring to FIG. 1, the method of the present invention includes a natural mineral ceramic preparation step (S10), a natural mineral ceramic application step (S20), an electromagnetic wave energy measurement step (S30), and an electromagnetic wave energy measurement analysis step (S40).

[0043]

[0044] S10: Natural Mineral Ceramic Preparation Stage

[0045] First, a mineral-based somatid mineral powder containing seven mineral components and magnetic components, including silicon dioxide (SiO2), aluminum oxide (Al2O3), iron oxide (Fe2O3), magnesium oxide (MgO), potassium oxide (K2O), sodium triuranate (Na2O·3UO3), and calcium (Ca), which are essential components of bioelectricity, independently or in combination, is prepared (S11).

[0046] And 10 to 50 parts by weight of mineral-based somatid mineral powder, 10 to 48 parts by weight of plant-based somatid concentrate, and 0.1 to 0.3 parts by weight of magnetic powder are mixed and stirred using a mixing means, and then formed into a ceramic having a diameter of 2 mm to 30 mm in the shape of a circle, hexagon, diamond, triangle, square, pentagon, octagon, pyramid, etc. using a forming means (S12).

[0047] And, the molded somatid mineral ceramic is fired into a ceramic by a high-temperature heat treatment means of 100 to 1,200℃, such as an electric kiln, gas kiln, or tunnel kiln, to manufacture a natural mineral ceramic as in Fig. 2 (S13).

[0048]

[0049] Natural mineral ceramic application stage (S20)

[0050] A measuring container in the shape of a basket with an open top is prepared (S21). At this time, the measuring container may be made of polymeric materials, metal materials, ceramic materials, or plant-based organic materials including wood, but is not limited thereto.

[0051] And, natural mineral ceramic is added to the measuring container at a weight ratio of 10% to 80% of the target solution (S22). The target solution may be EZ water, structured water, ionized water, hydrogen water, alkaline water, tap water, stream water, deionized water, purified water, distilled water, negatively charged structure water, electrolyzed water, salt water, carbonated water, hot spring water, mineral water, mineral spring water, deep sea water, raw water, seawater, purified water, saline water, groundwater, bedrock water, and coffee, beverages, alcoholic beverages, non-alcoholic beverages, or a liquid mixed with two or more of these liquids, but is not limited thereto.

[0052] And by positioning a temperature control device in the internal space of the measuring vessel or positioning a temperature control device in the space where the measuring vessel is installed, the temperature of the solution to be measured is maintained at a preset temperature (e.g., 25 to 42°C), thereby intensifying the plasma phenomenon and electromagnetic waves emitted from the water (S22).

[0053]

[0054] Electromagnetic wave energy measurement step (S30)

[0055] A light irradiation device is installed on the upper side of the measuring vessel so as to face the internal space of the measuring vessel, and reaction-inducing light is irradiated toward the measurement target solution and natural mineral ceramic through the light irradiation device (S31). At this time, the reaction-inducing light may have any one of the wavelengths of UV light, IR light, X-rays, and radiation emitted by any one of a mobile phone flashlight, an LED lamp, a fluorescent lamp, an incandescent lamp, and a light bulb, but it is most preferably implemented as UV light.

[0056] It is characterized by having a light wavelength of any one of UV light, IR light, X-rays, and radiation, and emitting light through any one of a mobile phone flashlight lamp, LED lamp, fluorescent lamp, incandescent lamp, and light bulb.

[0057] Then, the measurement target solution and the natural mineral ceramic react with each other, and the natural mineral ceramic emits UV (ultraviolet) and IR (infrared) energy of 220 nmP to 1,800 nmP, and a plasma phenomenon occurs in which electromagnetic wave photons having this energy are emitted onto the surface of the measurement target solution. Accordingly, in the present invention, a camera is installed on the upper side of the measurement container so as to face the internal space of the measurement container, and the electromagnetic wave photons continuously emitted onto the surface of the measurement target solution are photographed through the camera as shown in FIG. 3 (S32).

[0058] At this time, the camera may be any camera released and sold as a product other than a mobile phone camera, SLR camera, DSLR camera, stereoscopic camera, animation camera, underwater camera, high-speed camera, mirrorless camera, point-and-shoot camera, compact camera, high-end camera, special camera, microscope, etc. However, it is desirable to have a frame per second (FPS; Frames Per Second) adjustment function so that it can capture even electromagnetic wave photons that cannot be seen with the human eye.

[0059]

[0060] In addition, natural mineral ceramics can generate negative electrons of -40 mV to -300 mV, thereby causing a voltage of 0.4 V to 0.9 V and a current of 0.1 mA to 0.9 mA to flow through the solution to be measured. Therefore, the present invention additionally provides two electrodes immersed in the solution to be measured in a measuring vessel and a power sensor connected to the two electrodes to measure voltage and / or current, and also measures the voltage and / or current flowing through the solution to be measured through the power sensor (S33).

[0061]

[0062] Electromagnetic wave energy analysis step (S50)

[0063] An image processing program having a predefined electromagnetic wave photon detection standard is provided to detect electromagnetic wave photons having energies of 220 nmP to 1,800 nmP contained in camera images. Then, the number of electromagnetic wave photons detected is collected and averaged over a predetermined period of time to calculate the average number of electromagnetic wave photons detected.

[0064] And by generating and guiding reporting information including at least one of the average number of electromagnetic wave photons detected, voltage and / or current measurement results, and camera images to the user, the user can confirm the electromagnetic properties of the solution to be measured through the reporting information.

[0065]

[0066] FIG. 2 is a diagram illustrating a system for measuring electromagnetic wave energy of a measurement target solution using natural mineral ceramic according to one embodiment of the present invention.

[0067] As illustrated in FIG. 2, the system of the present invention comprises a basket-shaped measuring vessel (10), a measuring target solution (20) and a natural mineral ceramic (30) placed in the measuring vessel (10), a temperature control device (40) for maintaining the temperature of the measuring target solution (20) at a preset temperature (for example, 25 to 42°C), a light irradiation device (50) for irradiating the measuring target solution (20) and the natural mineral ceramic (30) with a reaction-inducing light implemented as any one of UV light, IR light, X-rays, and radiation, a measuring device (60) for photographing electromagnetic wave photons emitted by the natural mineral ceramic when the measuring target solution and the natural mineral ceramic react with each other through a camera (61) and measuring negative electrons flowing through the measuring target solution (20) through a power sensor (62), and a control for detecting and analyzing electromagnetic wave photons from the camera image to calculate the average number of electromagnetic wave photons detected, and then generating reporting information including at least one of the average number of electromagnetic wave photons detected, the negative electron measurement result, and the camera image to guide the user. Includes a device (70), etc.

[0068]

[0069] Meanwhile, the various embodiments described above may be implemented in a recording medium readable by a computer or similar device using software, hardware, or a combination thereof.

[0070] In terms of hardware implementation, the embodiments described in the present disclosure may be implemented using at least one of Application Specific Integrated Circuits (ASICs), digital signal processors (DSPs), digital signal processing devices (DSPDs), programmable logic devices (PLDs), field programmable gate arrays (FPGAs), processors, controllers, micro-controllers, micro-processors, and other electrical units for performing functions.

[0071] In some cases, the embodiments described herein may be implemented within the processor itself. In a software implementation, the embodiments, such as the procedures and functions described herein, may be implemented within separate software units. Each of the aforementioned software units may perform one or more of the functions and operations described herein.

[0072] Meanwhile, computer instructions for performing processing operations in electronic devices and the like according to the various embodiments of the present disclosure described above may be stored in a non-transitory computer-readable medium. When the computer instructions stored in such a non-transitory computer-readable medium are executed by a processor of a specific device, the specific device performs the processing operations according to the various embodiments described above.

[0073] A non-transitory computer-readable medium refers to a medium that permanently stores data and can be read by a device, rather than a medium that stores data for a short period of time, such as a register, cache, or memory. Specific examples of non-transitory computer-readable media include CDs, DVDs, hard disks, Blu-ray discs, USBs, memory cards, and ROMs.

[0074]

[0075] Although the preferred embodiments of the present disclosure have been illustrated and described above, the present disclosure is not limited to the embodiments of the above-described features, and various modifications may be made by a person having ordinary skill in the art to which the present disclosure pertains without departing from the gist of the present disclosure as claimed in the claims. Furthermore, such modifications should not be understood individually from the technical idea or prospect of the present disclosure.

Claims

1. In a method for measuring electromagnetic wave energy of a target solution using a natural mineral ceramic of an electromagnetic wave energy measuring device, Natural mineral ceramic preparation step for preparing natural mineral ceramic; A natural mineral ceramic application step of placing the above natural mineral ceramic and the measurement target solution into a measurement container, and then maintaining the temperature of the measurement target solution at a preset temperature through a temperature control device; An electromagnetic wave energy measurement step of irradiating the natural mineral ceramic and the measurement target solution with a reaction-inducing light through a light irradiation device, photographing the electromagnetic wave photons emitted by the natural mineral ceramic as the natural mineral ceramic and the measurement target solution react with each other, and measuring the negative electrons flowing through the measurement target solution through a power sensor; and A method for measuring electromagnetic wave energy of a measurement target solution using natural mineral ceramic, comprising an electromagnetic wave energy measurement analysis step of detecting and analyzing electromagnetic wave photons from a camera image to calculate an average detection count of electromagnetic wave photons, and then generating reporting information including at least one of the average detection count of electromagnetic wave photons, a negative electron measurement result, and a camera image to guide the user.

2. In the first paragraph, the natural mineral ceramic preparation step is A step for preparing a mineral-based somatid mineral powder containing seven mineral components and magnetic components, namely silicon dioxide (SiO2), aluminum oxide (Al2O3), iron oxide (Fe2O3), magnesium oxide (MgO), potassium oxide (K2O), sodium triuranate (Na2O·3UO3), and calcium (Ca), independently or in combination; After mixing and stirring 10 to 50 parts by weight of mineral-based somatid mineral powder, 10 to 48 parts by weight of plant-based somatid concentrate, and 0.1 to 0.3 parts by weight of magnetic powder, A step of forming a ceramic having a diameter of 2 mm to 30 mm and having any one of the following shapes: a hexagon, a diamond, a triangle, a square, a pentagon, an octagon, and a pyramid; and A method for measuring electromagnetic wave energy of a measurement target solution using a natural mineral ceramic, characterized in that it includes a step of manufacturing a natural mineral ceramic by firing a molded somatid mineral ceramic at a high temperature of 100 to 1,200°C.

3. In the first paragraph, the solution to be measured is A method for measuring electromagnetic wave energy of a measurement target solution using natural mineral ceramics, characterized in that the solution is EZ water, structured water, ionized water, hydrogen water, alkaline water, tap water, stream water, deionized water, purified water, distilled water, negatively charged structure water, electrolyzed water, salt water, carbonated water, hot spring water, mineral water, mineral spring water, deep sea water, raw water, seawater, purified water, saline water, groundwater, bedrock water, and coffee, beverage, alcoholic beverage, non-alcoholic beverage, or a liquid that is a mixture of two or more of these liquids.

4. In the first paragraph, the reaction-inducing light A method for measuring electromagnetic wave energy of a solution to be measured using a natural mineral ceramic characterized in that it has a light wavelength of any one of UV light, IR light, X-rays, and radiation, and is emitted through any one of a mobile phone flashlight, an LED lamp, a fluorescent lamp, an incandescent lamp, and a light bulb.

5. In the first paragraph, the electromagnetic wave photon A method for measuring electromagnetic wave energy of a target solution using a natural mineral ceramic characterized by having an energy of 220 nmP to 1,800 nmP.

6. In the first paragraph, the negative electron is A method for measuring electromagnetic wave energy of a target solution using a natural mineral ceramic characterized by having a voltage of -40 mV to -300 mV.

7. In the first paragraph, the measuring container A method for measuring electromagnetic wave energy of a solution to be measured using a natural mineral ceramic characterized by being manufactured from a polymer material, a metal material, a ceramic material, and a plant-based organic material including wood.

8. In the first paragraph, the camera A method for measuring electromagnetic wave energy of a measurement target solution using natural mineral ceramics, characterized in that the measurement target solution is implemented by any one of a mobile phone camera, an SLR camera, a DSLR camera, a stereoscopic camera, an animation camera, an underwater camera, a high-speed camera, a mirrorless camera, a point-and-shoot camera, a compact camera, a high-end camera, a special camera, and a microscope.

9. In paragraph 8, the camera A method for measuring electromagnetic wave energy of a measurement target solution using a natural mineral ceramic characterized by having a frame per second (FPS; Frames Per Second) adjustment function.

10. Basket-shaped measuring container; The solution to be measured is put into the above measuring container; Natural mineral ceramics placed in the above measuring container; A temperature control device that maintains the temperature of the solution to be measured at a preset temperature; A light irradiation device that irradiates a reaction-inducing light implemented as any one of UV light, IR light, X-ray, and radiation to the above measurement target solution and the natural mineral ceramic; A measuring device that photographs electromagnetic wave photons emitted by the natural mineral ceramic as the measured solution and the natural mineral ceramic react with each other through a camera, and measures negative electrons flowing through the measured solution through a power sensor; and A system for measuring electromagnetic wave energy of a measurement target solution using natural mineral ceramic, comprising a control device for detecting and analyzing electromagnetic wave photons from a camera image, calculating an average detection count of electromagnetic wave photons, and then generating reporting information including at least one of the average detection count of electromagnetic wave photons, a negative electron measurement result, and a camera image to guide the user.

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