Infrared ray control method using properties of magnetic force (magnetic energy)

Abstract

To solve the problem that conventionally, even when combustion operation for fire extinction and fire prevention is suppressed or when heat transfer (thermal conduction) by temperature difference for heat insulation and thermal insulation is suppressed, functions of substances such as substances suppressing combustion, substances hard to burn, and heat insulating and heat retaining substances are used to control heat energy; to provide a method different from a conventional way of thinking to improve effect of heat energy control.SOLUTION: Fire extinction measures during fire and fire prevention measures against fire control heat energy caused by combustion operation; heat insulation measures of a building and heat retention measures of foods or the like control heat transfer caused by temperature difference. According to a method disclosed, a conventional substance function is not used but an energy function a magnetic force (magnetic energy) has is used to control heat energy.SELECTED DRAWING: None

Description

[Technical field]

[0001] The present invention relates to the characteristics of magnetic energy and the application technology of the mutual conversion between magnetic energy and electric energy. [Background technology]

[0002] Electromagnetic wave transmission characteristics of magnetic energy (magnetic force)

[0003] Mutual conversion between magnetic energy and electrical energy Summary of the Invention [Problem to be solved by the invention]

[0004] Fire extinguishing measures, fire prevention measures in preparation for fires, indoor temperature control in residential environments, and measures to keep food warm all involve the control of thermal energy. Traditionally, these issues have been addressed by utilizing the functions of substances such as fire extinguishing agents, flame retardants, and heat insulating materials. In response to this, we offer a method that differs from conventional thinking and approaches by controlling thermal energy by utilizing the functions of energy rather than matter, thereby contributing to solving the problem. [Means for solving the problem]

[0005] Magnetic force (magnetic energy) has the property of blocking (not transmitting) most ranges of infrared wavelengths (most temperature ranges of thermal energy). When a strong magnetic field is applied, thermal energy is blocked by the magnetic force and does not spread beyond the magnetic field. This means that magnetic force (magnetic energy) acts like a barrier against thermal energy. The characteristics of this magnetic force (magnetic energy) can be used to solve problems related to the control of thermal energy. In firefighting measures, fire prevention measures in preparation for fires, insulation measures for buildings, and measures to keep food warm, a strong magnetic field is generated using a substance or device to prevent heat transfer (thermal conduction) from the target area or object to the surrounding area. A strong magnetic field can be generated by mixing together ferromagnetic materials such as neodymium magnets, electromagnet materials such as pure iron, and highly conductive metals such as copper and aluminum, or good carbon-based conductors such as carbon allotropes, processed into powder or liquid form. This mixture has the ability to convert magnetic energy into electrical energy and vice versa, generating an extremely strong magnetic field. Furthermore, even if a ferromagnetic material such as a neodymium magnet is used alone, the effect can be obtained since it generates a constant magnetic field. In this way, the problem is solved by a method of controlling thermal energy using magnetic energy functions, rather than material functions such as fire extinguishing agents, flame retardants, and heat insulating materials.

Claims

1. Magnetic force (magnetic energy) has the property of blocking (not transmitting) most of the infrared wavelength range (most of the temperature range of thermal energy). If there is an area where strong magnetic force exists (magnetic field), the thermal energy will be blocked. The heat is repelled by the magnetic force and cannot be transmitted through the magnetic field. Normally, heat (energy) is transferred from high temperature areas to low temperature areas and spreads (moves) through the surrounding medium (gas, liquid, solid). However, even if a medium through which heat can be transmitted exists, if a strong magnetic field is applied, the medium acts as a barrier against heat (infrared wavelength light), and the heat does not spread in the direction of the magnetic field. This is because magnetic force (magnetic energy) has the physical property of being non-thermally conductive (does not transmit heat). Strong magnetic force (magnetic energy) can be produced by mixing three types of substances - a ferromagnetic material such as a neodymium magnet, a metal that can be used to make electromagnets such as pure iron, and a good conductor such as a metal such as copper or a carbon allotrope - in powder or liquid form, or by processing two types of substances - a ferromagnetic material such as a neodymium magnet, and a good conductor such as a metal such as copper or a carbon allotrope - and two types - a metal that can be used to make electromagnets such as pure iron, and a good conductor such as a metal such as copper or a carbon allotrope - into powder or liquid form and mixing them together, then sealing them in a mixing device, or by shaping the mixed mixture using a firing process or other method. The mixture in the device or the molded mixture is temporarily supplied with electric energy from an external power source (energized), or magnetic energy from an external magnetic source (placed in a magnetic field). Then, these two-substance mixtures (two ways) can generate electricity and a magnetic field simultaneously (a state in which electrical energy and magnetic energy are mutually converted), just like the mixture of three substances, and so can be generated using these mixtures. This method involves generating magnetic force (magnetic energy) with these characteristics at a fire site, etc., to restrict the thermal energy generated in the combustion area (heat source) and prevent the fire from spreading to the surrounding area. A method of preventing the spread of fire damage by generating a strong magnetic field around the burning area, preventing the fire from spreading to surrounding areas that have not yet caught fire, and limiting the burning area. A method for generating a strong magnetic force (magnetic energy) in a combustion area (heat source) or its surrounding area is to use a mixture using the above three types of substances or a mixture using two types of substances (two ways) to which electric energy or magnetic energy is applied from an external power source or external magnetic source as a magnetic source. Devices or containers containing these mixtures (magnetic sources) are placed around the combustion area, and the magnetic fields emitted from them form a firewall-like shape that blocks the spread of infrared rays (propagation of thermal energy) from the combustion area (heat source). Alternatively, a powder or liquid mixture can be scattered directly on and around the burning area to prevent infrared (heat energy) from spreading beyond its current location, allowing the fire to die out naturally once the current burning material has burned away. This method generates a strong magnetic force, which helps prevent or reduce fire damage.

2. In the method described in claim 1, the mixture using three types of substances and the mixture using two types of substances (two types) have material properties that allow mutual conversion between electrical energy and magnetic energy, but 100% mutual conversion is not achieved, and a portion of the electrical energy is converted into thermal energy as it is transmitted to and circulated by the good conductor. This reduces the electrical energy generating capacity of the mixture. When the electrical energy generation capacity decreases, the magnetic energy generation capacity that is being exchanged also decreases. As the magnetic energy (magnetic force) of the mixture decreases, the ability to control external thermal energy, not just the thermal energy within the mixture, also decreases. To address the issue of reduced thermal energy control capability, a method is to process substances with the material property of pyroelectric effect (the action of mutual conversion between electrical energy and thermal energy), such as pyroelectrics, organic compounds, and earth and stone, into powder or solution form and add and mix an appropriate amount. This makes it possible to convert the thermal energy within the mixture into electrical energy, realizing a cycle in which the electrical energy generated within the mixture is converted into magnetic energy and thermal energy, and the magnetic energy and thermal energy are converted into electrical energy, thereby preventing a decrease in the ability to control thermal energy (external thermal energy, not within the mixture) that comes with a decrease in the mixture's ability to generate electrical energy and magnetic energy.

3. In the method according to claim 1, a device or a container containing the mixture is prepared in advance in a building or the like. These devices and containers are painted with insulating paint to prevent the magnetic properties of the mixture from escaping to the outside, and when in use, a portion of the container is opened to release the magnetic properties. This method can be used as a fire prevention device to minimize damage in the event of a fire. (Insulators have the material properties of not conducting electricity, but also not conducting magnetism, so sealing equipment or containers painted with a liquid paint can prevent the magnetic compound from escaping.) In addition, a method of painting walls etc. with a paint made from a solution of the mixture, and then painting an insulating paint on top of that, to provide the function of a fire barrier in the event of a fire. This method of creating a fire wall does not use flame-retardant materials, but instead uses magnetic force (magnetic energy) to block the penetration of infrared rays (thermal energy).

4. A method for providing a thermal insulation function by using the method according to claim 1 on the interior or exterior walls of a building. This method uses magnetic force (magnetic energy) to block heat transfer (thermal conduction) caused by temperature differences inside and outside a building, providing an insulating effect that keeps the interior cool when it is hot outside and warm when it is cold outside.

5. A method for maintaining contents at a specific temperature range, such as frozen, refrigerated, or warmed, by using the method according to claim 1 in a delivery box, shipping box, heat-retaining device, heat-retaining bag, or the like. A method of maintaining the internal temperature of a device, container, box, etc. by blocking heat transfer (thermal conduction) caused by temperature differences between the inside and outside of the device, container, box, etc. using magnetic force (magnetic energy), thereby maintaining a specific temperature for the contents (food, etc.).

6. Structures such as houses, bags, containers, boxes, devices, facilities, defense equipment, artificial satellites, planetary probes, planetary habitation spaces (not limited to inside or outside of buildings), transportation such as railway cars, manufacturing facilities such as heat source furnaces, and power generation facilities, using the methods of claims 1, 2, 3, 4, and 5.

7. Services and businesses that use buildings such as residences, bags, containers, boxes, devices, facilities, defense equipment, artificial satellites, planetary probes, planetary habitation spaces, transportation means such as railway cars, manufacturing facilities such as heat source furnaces, and power generation facilities as described in claim 6.