Nuclear fusion reaction promoting method
By employing nano-sized particles for thermal energy amplification, magnetic force blocking, and vacuum structures to prevent heat dissipation, the challenges of achieving and maintaining high temperatures in nuclear fusion reactions are addressed, enhancing both efficiency and furnace durability.
Patent Information
- Application Number
- JP2023202248
- Authority / Receiving Office
- JP · JP
- Patent Type
- Applications
- Current Assignee / Owner
- Filing Date
- 2023-10-20
- Publication Date
- 2025-05-02
AI Technical Summary
In nuclear fusion reactions using hydrogen and hydrogen gas lasers, achieving and maintaining the high temperatures required within a short time frame is challenging, and existing furnace materials lack the necessary durability to withstand these temperatures.
The use of nano-sized particles to enhance thermal energy amplification through plasmon resonance, combined with a magnetic force blocking thermal energy and a vacuum structure to prevent heat dissipation, improves temperature rise efficiency and furnace durability.
These methods significantly enhance the temperature rise efficiency and durability of the furnace, enabling the achievement and maintenance of high temperatures necessary for nuclear fusion reactions.
Abstract
Description
[Technical field]
[0001] The present invention relates to an application technology for amplifying and controlling thermal energy. [Background technology]
[0002] Plasmon Resonance Phenomenon
[0003] Electromagnetic wave blocking effect by magnetic force (magnetic energy)
[0004] Actions in the absence of a heat conducting medium (vacuum state) Summary of the Invention [Problem to be solved by the invention]
[0005] In the technology of using hydrogen and a hydrogen gas laser to create a nuclear fusion reaction, a very high temperature is required for the reaction to occur, and the required temperature must be reached within a certain time. Furthermore, if the material and structure of the reactor cannot withstand this temperature, the reactor will melt before the nuclear fusion reaction occurs. Therefore, there was a need to improve the efficiency of increasing the temperature inside the furnace and the high-temperature durability of the furnace compared to conventional methods. [Means for solving the problem]
[0006] (Solution 1) Method for amplifying thermal energy by plasmon resonance The reactants enclosed within the nuclear fusion reactor will not only consist of conventional hydrogen, but will also contain an appropriate amount of nano-sized particles. Alternatively, the hydrogen-absorbing material can be processed into nano-sized particles and enclosed in place of hydrogen (gas). This allows the infrared wavelength light generated and amplified inside the furnace to interact with the nano-sized particles, causing a chemical reaction known as plasmon resonance, which improves the efficiency of temperature rise (thermal energy amplification efficiency), thereby contributing to solving the problem. (The material, size, shape, and amount of nano-sized particles are not limited.) (Solution 2) Thermal energy blocking method using magnetic force (magnetic energy) In order to suppress the radiation of infrared wavelength light (thermal energy) outside the furnace, the furnace has a double structure with an outer frame around it, and the outer frame structure is manufactured by mixing a mixture of "magnetic materials such as neodymium magnets," "metals that are used to make electromagnets such as pure iron," and "good conductors with high electrical conductivity" that are processed into powder form, mixing this with an adhesive (solidifying agent), and molding it. Since magnetic force (magnetic energy) blocks (does not allow to pass) most of the infrared wavelength range of light (most of the temperature range of thermal energy), the presence of a strong magnetic field around the furnace prevents the thermal energy inside the furnace from being dissipated outside the furnace, thereby contributing to solving the problem. (Although the magnetic force is weaker than that of a mixture, a single magnetic body such as a neodymium magnet can be used as the material for the outer frame structure to have a certain effect.) In addition, the mixture that is the main raw material of the outer frame structure can be processed into a powder or liquid form and used to coat the inside and outside of the furnace to further enhance the effect. (Solution 3) Method for blocking thermal energy in a vacuum In order to suppress the radiation of infrared wavelength light (thermal energy) outside the furnace, the furnace has a double structure with an outer frame around it, and a sealed vacuum space is created between the furnace and the outer frame structure. This structure has the same effect as a vacuum thermos flask. Because a vacuum space does not contain air, which is a medium for transmitting heat, the thermal energy that is generated and amplified inside the furnace is prevented from being dissipated outside the furnace, thereby contributing to solving the problem.
Claims
1. The fusion reactor is filled to capacity with hydrogen and sealed, after which a "gas laser using hydrogen as the operating medium" is used to irradiate the hydrogen inside the reactor with light in the "far-infrared wavelength range." As a result, the hydrogen in the reactor becomes a plasma state, causing the "induced emission phenomenon" and the "same frequency resonance phenomenon of electromagnetic waves," and all of the hydrogen in the reactor becomes in the same state as a "far-infrared wavelength region hydrogen gas laser." As this condition continues and the high temperature and pressure conditions increase, the temperature increases to the level required for nuclear fusion reactions. This is the technology that can cause nuclear fusion reactions. This method promotes the nuclear fusion reaction by utilizing a chemical reaction called plasmon resonance, which occurs when an appropriate amount of nano-sized particles is added to the reactants sealed inside the reactor in addition to hydrogen in order to promote a rise in temperature inside the reactor (amplification of thermal energy). This technology induces nuclear fusion reactions by utilizing physical phenomena such as the electromagnetic wave frequency resonance phenomenon between "a full volume of hydrogen sealed inside a reactor" and a "far-infrared wavelength region hydrogen gas laser." In addition to the hydrogen sealed inside the reactor, an appropriate amount of nano-sized particles are added to promote the reaction, and in addition to the multiple physical phenomena that occur inside the reactor, a chemical reaction called plasmon resonance occurs. By adding this chemical reaction, the efficiency of temperature rise inside the reactor (efficiency of amplifying thermal energy) is improved, thereby promoting the nuclear fusion reaction. (Plasmon resonance is a phenomenon in which light of a specific wavelength is absorbed, so in this case, nano-sized particles that absorb light of infrared wavelengths are used.) (Plasmon resonance is a phenomenon in which, when light is irradiated onto nano-sized particles, light of specific wavelengths contained in the light is absorbed within the particle without being reflected, resulting in resonance. When the electrons within the particle resonate with the wave motion of the light, electrons with great energy called hot electrons are generated. The temperature rises due to the energy amplification effect caused by the infrared wavelength resonance, even without the addition of heat.)
2. In nuclear fusion technology that utilizes physical phenomena such as the electromagnetic wave frequency resonance phenomenon between "hydrogen sealed in the reactor" and a "far-infrared wavelength range hydrogen gas laser" as described in claim 1, the infrared rays (thermal energy) that are generated and amplified within the reactor are retained within the reactor without being radiated outside, thereby promoting an increase in temperature within the reactor (amplification of thermal energy). In order to suppress the radiation of infrared rays outside the reactor, the fusion reactor will have a double structure consisting of a furnace that irradiates the sealed hydrogen with a laser, and an outer frame that surrounds the furnace. The outer frame structure will be manufactured by mixing together powdered materials such as "ferromagnetic materials such as neodymium magnets," "metals that can be used to make electromagnets, such as pure iron," and "highly conductive metals such as copper and aluminum, or good carbon-based conductors such as carbon allotropes," and then mixing this with an adhesive (solidifying agent) and molding it. The mixture that is the main raw material of this outer frame structure has the material properties to convert magnetic energy into electrical energy and vice versa, generating an extremely strong magnetic field. Since a magnetic field (magnetic energy) blocks (does not transmit) most of the infrared wavelength range, the presence of a strong magnetic field around the furnace has the effect of preventing the infrared rays (thermal energy) that are generated and amplified inside the furnace from being dissipated outside the furnace. In this way, by designing the fusion reactor with a double structure that surrounds it with an outer frame structure that has a strong magnetic field, the efficiency of temperature increase (amplification of thermal energy) inside the reactor is improved, and the nuclear fusion reaction is promoted.
3. In nuclear fusion technology that utilizes physical phenomena such as the electromagnetic wave frequency resonance phenomenon between "hydrogen sealed in the reactor" and a "far-infrared wavelength range hydrogen gas laser" as described in claim 1, the infrared rays (thermal energy) that are generated and amplified within the reactor are retained within the reactor without being radiated outside, thereby promoting an increase in temperature within the reactor (amplification of thermal energy). In order to suppress the radiation of infrared rays outside the reactor, the mixture that is the main raw material of the outer frame structure of the nuclear fusion reactor described in claim 2 is processed into a powder or solution form and coated (applied) on the entire inner and outer walls of the reactor. This mixture has the material properties to convert magnetic energy into electrical energy and vice versa, generating an extremely strong magnetic field. Since the magnetic field (magnetic energy) blocks (does not transmit) most of the infrared wavelength range, the entire inside and outside of the furnace is covered in a strong magnetic field, which has the effect of preventing the infrared rays (thermal energy) that are generated and amplified inside the furnace from being dissipated outside the furnace. In this way, the inner walls and outer periphery of a fusion reactor are coated with a material that has a strong magnetic field, thereby improving the efficiency of temperature rise (amplification of thermal energy) inside the reactor and promoting the nuclear fusion reaction.
4. In nuclear fusion technology that utilizes physical phenomena such as the electromagnetic wave frequency resonance phenomenon between "hydrogen sealed in the reactor" and a "far-infrared wavelength range hydrogen gas laser" as described in claim 1, the infrared rays (thermal energy) that are generated and amplified within the reactor are retained within the reactor without being radiated outside, thereby promoting an increase in temperature within the reactor (amplification of thermal energy). In order to suppress the radiation of infrared rays outside the reactor, the fusion reactor will be designed with a double structure consisting of a furnace that irradiates sealed hydrogen with a laser and an outer frame that surrounds the furnace, with a sealed vacuum space being created between the furnace and the outer frame structure. Since a vacuum space does not contain air, which is a medium for transmitting heat, the heat inside the furnace is less likely to be transmitted to the outside of the furnace (heat is less likely to move from inside the furnace to the outside of the furnace), which promotes an increase in temperature inside the furnace (amplification of thermal energy). In this way, by designing a nuclear fusion reactor with a double structure similar to that of a vacuum thermos flask, the efficiency of temperature rise (amplification of thermal energy) inside the reactor is improved, thereby promoting the nuclear fusion reaction.
5. An apparatus, facility, or weapon using the method according to claim 1, claim 2, claim 3, or claim 4.
6. A service or business using the device, facility, or weapon described in claim 5.