WO2007085189A1 - A laser-scanning electric atom-resonating hydrocarbon-catalyzing method and a device thereof - Google Patents

A laser-scanning electric atom-resonating hydrocarbon-catalyzing method and a device thereof Download PDF

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Publication number
WO2007085189A1
WO2007085189A1 PCT/CN2007/000262 CN2007000262W WO2007085189A1 WO 2007085189 A1 WO2007085189 A1 WO 2007085189A1 CN 2007000262 W CN2007000262 W CN 2007000262W WO 2007085189 A1 WO2007085189 A1 WO 2007085189A1
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Prior art keywords
laser radiation
mesh
magnetic
laser
fuel
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PCT/CN2007/000262
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French (fr)
Chinese (zh)
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Zhiqiang Xu
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Zhiqiang Xu
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    • FMECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
    • F23COMBUSTION APPARATUS; COMBUSTION PROCESSES
    • F23KFEEDING FUEL TO COMBUSTION APPARATUS
    • F23K5/00Feeding or distributing other fuel to combustion apparatus
    • F23K5/02Liquid fuel
    • F23K5/08Preparation of fuel
    • FMECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
    • F02COMBUSTION ENGINES; HOT-GAS OR COMBUSTION-PRODUCT ENGINE PLANTS
    • F02CGAS-TURBINE PLANTS; AIR INTAKES FOR JET-PROPULSION PLANTS; CONTROLLING FUEL SUPPLY IN AIR-BREATHING JET-PROPULSION PLANTS
    • F02C7/00Features, components parts, details or accessories, not provided for in, or of interest apart form groups F02C1/00 - F02C6/00; Air intakes for jet-propulsion plants
    • F02C7/22Fuel supply systems
    • FMECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
    • F02COMBUSTION ENGINES; HOT-GAS OR COMBUSTION-PRODUCT ENGINE PLANTS
    • F02MSUPPLYING COMBUSTION ENGINES IN GENERAL WITH COMBUSTIBLE MIXTURES OR CONSTITUENTS THEREOF
    • F02M27/00Apparatus for treating combustion-air, fuel, or fuel-air mixture, by catalysts, electric means, magnetism, rays, sound waves, or the like
    • F02M27/02Apparatus for treating combustion-air, fuel, or fuel-air mixture, by catalysts, electric means, magnetism, rays, sound waves, or the like by catalysts
    • FMECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
    • F02COMBUSTION ENGINES; HOT-GAS OR COMBUSTION-PRODUCT ENGINE PLANTS
    • F02MSUPPLYING COMBUSTION ENGINES IN GENERAL WITH COMBUSTIBLE MIXTURES OR CONSTITUENTS THEREOF
    • F02M27/00Apparatus for treating combustion-air, fuel, or fuel-air mixture, by catalysts, electric means, magnetism, rays, sound waves, or the like
    • F02M27/06Apparatus for treating combustion-air, fuel, or fuel-air mixture, by catalysts, electric means, magnetism, rays, sound waves, or the like by rays, e.g. infrared and ultraviolet
    • FMECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
    • F23COMBUSTION APPARATUS; COMBUSTION PROCESSES
    • F23KFEEDING FUEL TO COMBUSTION APPARATUS
    • F23K2300/00Pretreatment and supply of liquid fuel
    • F23K2300/10Pretreatment
    • FMECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
    • F23COMBUSTION APPARATUS; COMBUSTION PROCESSES
    • F23KFEEDING FUEL TO COMBUSTION APPARATUS
    • F23K2300/00Pretreatment and supply of liquid fuel
    • F23K2300/10Pretreatment
    • F23K2300/101Application of magnetism or electricity
    • FMECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
    • F23COMBUSTION APPARATUS; COMBUSTION PROCESSES
    • F23KFEEDING FUEL TO COMBUSTION APPARATUS
    • F23K2900/00Special features of, or arrangements for fuel supplies
    • F23K2900/05081Treating the fuel with catalyst to enhance combustion

Definitions

  • the present invention relates to the field of electronics, and more particularly to a laser scanning electrical atom resonance hydrocarbon catalytic method and apparatus.
  • An object of the present invention is to provide a laser scanning power by overcoming the deficiencies in the prior art.
  • An atomic resonant hydrocarbon catalytic device that enhances the catalytic process of hydrocarbons, such as the chemical reaction rate of fuel, by releasing more energy to achieve energy conservation and environmental protection.
  • Another object of the present invention is to provide a laser scanning electric atom resonance type hydrocarbon hydrogen catalysis method which can improve the catalytic process of hydrocarbons, such as the chemical reaction speed of fuel oil, and achieve energy saving and environmental protection by releasing more energy. .
  • nuclei In addition to the charge and mass, more than half of the nuclei have spins. Since the nucleus is a charged particle, a small magnetic field is generated when spinning. The energy of these nuclei will split into more than two quantized energy levels in a strong magnetic field. When electromagnetic radiation of the appropriate wavelength illuminates the nucleus in the magnetic field, the nucleus transitions between these magnetically induced energy levels. The energy difference between the magnetically induced energy levels can be expressed as
  • the speed and the slowness of the chemical reaction process are related to the electron transfer speed in the reaction process, and the electron transfer speed is fast, and the reaction is vigorously released.
  • the speed of electron transfer is related to the energy of the electron itself.
  • the electrons whose energy is at the highest energy level participate in the chemical reaction, and the electrons of the bottom level absorb the energy level transition under certain conditions. Transition from low energy level to high energy level.
  • the invention uses laser technology and nuclear magnetic resonance technology to obtain energy for low-energy electrons; high-energy electron energy is increased to higher, chemical reaction speed is increased, and more energy is released.
  • fuel As an example: Under the irradiation of laser light, the carbon in the fuel, the electrons in the hydrogen atom are subjected to the energy of the laser radiation, and become the excited state. Under the strong magnetic field and a certain frequency of electromagnetic radiation, the carbon proton nucleus occurs. The resonance nucleus transitions from a low energy level to a high energy level, and the electron energy level is correspondingly further increased, so that the chemical reaction is more intense and the energy is released.
  • a laser scanning electric atom resonance type hydrocarbon hydrogen catalytic device comprises: a casing, a laser radiation array, a high mesh metal mesh and a nuclear magnetic resonance tunnel, wherein: the casing is lined with an insulating layer; and is in the casing There are fuel inlets and outlets at both ends; a first laser radiation array is arranged in the casing near the fuel inlet, and a laser radiation reflection sheet, a high mesh metal mesh, a second laser radiation array, and nuclear magnetic resonance are sequentially disposed behind Tunnels, fuel outlets; among them, high-mesh metal meshes are attached with ferrite particles; high-mesh metal meshes are connected to high-frequency electricity.
  • the laser radiation intensity of the first laser radiation array is: 5mW-lW.
  • the intensity of the laser radiation of the second laser radiation array is: 5 mW - 1 W.
  • the mesh number of the high mesh metal mesh is 200-800 mesh.
  • the ferrite particles attached to the high mesh metal mesh are 2 X 2 X 2 mm, 20-40 grains per square centimeter, and are sandwiched between the metal meshes to form an adhesion.
  • the high mesh metal mesh and the NMR tunnel coil are connected to high frequency power, and the frequency range is MHZ-KMHZ.
  • the magnetic poles and coils of the nuclear magnetic resonance tunnel are one or more.
  • a laser scanning electric atom resonance hydrocarbon catalytic method comprises:
  • the medium first pass through the first laser radiation array in the closed container, and receiving the laser radiation of the first laser radiation array; the individual non-radiated medium is re-radiated by the deflected light of the deflecting sheet disposed in the closed container;
  • the intensity of the laser radiation is 5nW-lW ;
  • the medium that has received the laser radiation passes through a high mesh metal mesh that is attached with ferrite particles behind the first laser radiation array; and under the action of a high mesh metal mesh with high frequency electricity, the medium
  • the oil molecules undergo molecular polarization, and the H and C atoms form a certain excited state; and a certain amount of hydrogen ions and copper ions are generated; the ferrite particles are extremely small ferrite magnets after being vibrated by the high frequency electromagnetic field and the copper mesh.
  • the particles are dissolved in the medium to form a magnetic oil, which becomes a polar magnetic liquefaction medium in a high energy excited state;
  • the H and C nuclei in the medium are in a strong magnetic field and can induce nuclear resonance when passing through the nuclear magnetic resonance tunnel provided after the second laser radiation array
  • the H, C nucleus produces resonance to a higher energy level transition
  • the magnetic field strength of the nuclear magnetic resonance tunnel can be calculated according to the following formula:
  • h the Planck constant
  • V the radiation frequency
  • I the spin quantum number hydrogen proton is 1/2
  • Ho the magnetic field strength
  • the magnetic moment
  • the hydrogen proton magnetic moment is (2. 793 (5. 049 X 10 Erge/Gauss);
  • Fig. 1 is a schematic view showing the internal structure of a laser scanning electric atom resonance type hydrocarbon catalytic device of the present invention. BEST MODE FOR CARRYING OUT THE INVENTION The present invention will be further described with reference to the accompanying drawings and embodiments.
  • a laser scanning electric atom resonance type hydrocarbon hydrogen catalytic device comprises a casing 1, a first laser radiation array 2, a second laser radiation array 6, an optical radiation reflection sheet 3, and a high mesh number.
  • the housing 1 is lined with an insulating layer 8; a fuel inlet 9 and an outlet 10 are provided at both ends of the housing 1; a first laser radiation array 2 and laser radiation are disposed in the housing 1 near the fuel inlet 9.
  • a deflecting sheet 3 a high mesh metal copper mesh 4, a second laser radiation array 6, a nuclear magnetic resonance tunnel 7; wherein ferrite particles 5 are attached to the high mesh metal copper mesh 4; and high mesh metal copper
  • the mesh 4 is connected to a high frequency power; the nuclear magnetic resonance tunnel 7, which includes a high frequency power source 11, a magnetic pole 12, and a coil 13.
  • the intensity of the laser radiation of the first laser radiation array is: 5 mW - 1 W; and the intensity of the laser radiation of the second laser radiation array is: 5 mW - lW.
  • the mesh number of high mesh metal copper mesh is 200-800 mesh.
  • the ferrite particles attached to the high mesh metal copper mesh are 2 X 2 X 2 drawn, 20-40 grains per square centimeter, and are sandwiched between the metal copper meshes to form an adhesion.
  • the high-mesh metal copper mesh and the NMR tunnel have high-frequency power connected to the coil, and the frequency range is MHZ-KMHZ.
  • the magnetic poles and coils of the nuclear magnetic resonance tunnel are one or more.
  • the laser reflects the laser reflecting radiation of the reflection sheet 3, and the fuel is in an excited state
  • the fuel is affected by the formation of a high-frequency electromagnetic field around the high-mesh metal copper mesh 4, and the fuel passes through a copper mesh with a high-frequency electromagnetic field, so that the mass center of gravity of the oil molecules and the center of gravity of the electric field are separated, that is, molecular polarization,
  • the H and C atoms are in a certain excited state and produce a certain amount of hydrogen ions and copper ions;
  • the ferrite particles 5 attached to the high-mesh metal copper mesh 4 are subjected to high-frequency electromagnetic field vibration and high-mesh metal copper mesh, and there is extremely small ferrite.
  • the magnetic particle 5 is dissolved in the fuel to form a magnetic oil, that is, the fuel becomes a high-energy excited state of the polar magnetic liquefied fuel;
  • each atom in the fuel is excited again Higher energy state
  • the H and C nuclei in the fuel are in a strong magnetic field and high-frequency electromagnetic radiation that can induce nuclear resonance and perpendicular to the magnetic field.
  • the H and C nuclei generate resonances to higher energy levels, causing the chemical reaction to release more energy more intensely.
  • the polar magnetic liquefied fuel treated by the laser and nuclear magnetic resonance tunnel 7 flows out of the fuel outlet 10 of the casing 1.
  • the fuel treated by the present invention has a polar magnetic liquefaction state in a high-energy excited state, and the fuel in this state is involved in the subsequent combustion chemical reaction as compared with the untreated fuel. It can make the reaction more intense and release more energy.
  • the copper ion in the fuel is also a very good anti-wear agent. It can enhance the sealing effect of the piston, improve the combustion heat efficiency, and save the fuel and reduce emissions. efficacy.
  • a laser scanning electric atom resonance hydrocarbon catalytic method comprises:
  • the fuel to be catalyzed is placed in a casing 1 having a closed inlet of the fuel inlet 9, the outlet 10;
  • the fuel that has received the laser radiation passes through the high-mesh metal copper mesh 4 which is attached with the ferrite particles behind the first laser radiation array 2, and is connected to the high-mesh metal mesh 4 with high-frequency electricity.
  • the oil molecules of the fuel are molecularly polarized, and the H and C atoms are in a certain excited state; and a certain amount of hydrogen ions and copper ions are generated; the ferrite particles 5 are vibrated by the high frequency electromagnetic field and the copper mesh is rubbed.
  • An extremely small ferrite magnetic particle is dissolved in the fuel to form a magnetic oil, that is, the fuel becomes a high-energy excited state of the polar magnetic liquefied fuel;
  • a polar magnetic liquefied fuel in a high energy excited state which is secondarily irradiated by a second laser radiation array 6 disposed behind the high mesh metal copper mesh 4, wherein the laser radiation
  • the intensity is 5mW-lW, and the polar magnetic liquefied fuel in the high energy excited state is re-excited to make its energy higher;
  • h the Planck constant
  • V the radiation frequency
  • I the spin quantum number hydrogen proton is 1/2
  • Ho the magnetic field strength
  • the magnetic moment
  • the hydrogen proton magnetic moment is (2. 793 (5. 049 X 10 Erge / Gauss).
  • the principle is: When the nucleus absorbs energy, it is exactly equal to . After the quantum, it can be excited to the higher energy level. Therefore, the required nuclear magnetic resonance parameters can be calculated by the formula (1).
  • the magnetized fuel after two laser irradiation and electron nuclear magnetic resonance tunnels which is in a state of high-energy excited state of polar magnetic liquefaction, the fuel in this state, and the fuel that has not been treated
  • the reaction can be made more intense and more energy is released.
  • the copper ions in the fuel are also very good anti-wear agents to enhance the sealing effect of the piston and improve the combustion heat efficiency. It has the environmental protection effect of saving fuel and reducing emissions.
  • the present invention uses laser technology and nuclear magnetic resonance technology for the treatment of a hydrocarbon medium, and a high-energy excited state magnetic oil medium generated by vibrational friction of a copper mesh with a high-frequency electromagnetic field and a ferrite magnet can be burned. More energy is released, and the sealing effect of copper ions can bring about comprehensive energy saving and environmental protection effects.
  • the invention can be widely applied to fuel oil, gas appliances, such as internal combustion engines, gas turbines, and environmental protection of boilers.

Abstract

A laser-scanning electric atom-resonating hydrocarbon-catalyzing method and a device thereof are disclosed. The device comprises a housing (1), a laser radiation array, a wire mesh having big mesh count, and a nuclear magnetic resonance passage. An insulation layer (8) is lined in the housing, an inlet (9) and an outlet (10) are provided at the both ends of the housing. A first laser radiation array (2), a laser radiation refraction-reflection sheet (3) , a wire mesh (4) having big mesh count, a second laser radiation array (6) and the nuclear magnetic resonance passage (7) are provided in the housing. The wire mesh having big mesh count is connected with the electricity of high frequency and is provided with ferrite particle.

Description

Figure imgf000003_0001
Figure imgf000003_0001
一种激光扫描电原子谐振式碳氢催化方法及装置 Laser scanning electric atom resonance type hydrocarbon hydrogen catalytic method and device
技术领域 本发明涉及电子领域,特别是指一种激光扫描电原子谐振式碳氢 催化方法及装置。 背景技术 在石油价格日益上涨的能源市场, 开发新的能源, 挖掘普通能源 的潜力, 已成为全世界各个国家科技人员共同研究开发的主题。 我国 是一个能源消费大国, 目前的石油产品消费在我国的交通、 电力、 热 力等领域占了非常大的比重。 TECHNICAL FIELD The present invention relates to the field of electronics, and more particularly to a laser scanning electrical atom resonance hydrocarbon catalytic method and apparatus. BACKGROUND OF THE INVENTION In the energy market where oil prices are rising, the development of new energy sources and the potential of ordinary energy sources have become the subject of joint research and development by scientific and technological personnel in various countries around the world. China is a big energy consumer. The current consumption of petroleum products accounts for a very large proportion in the fields of transportation, electricity and heat in China.
例如, 在交通领域, 目前对内燃型机动车的技术改造就有许多技 术方案, 它包括: 釆用化学添加剂的手段、 采用在油管外敷设磁帖的 手段等, 以此来提高机动车燃油的燃烧效率; 达到节约燃油的目的。 但是从实际的检验效果分析, 它都不尽如人意, 例如: 添加剂在化学 反应时, 有时会产生新的生成物, 对机动车的发动机等部分有影响; 而磁帖的效果较低等等。  For example, in the field of transportation, there are many technical solutions for the technical transformation of internal combustion vehicles. It includes: means for using chemical additives, and means for laying magnetic posts outside the oil pipes to improve the fuel consumption of motor vehicles. Combustion efficiency; achieve the purpose of saving fuel. However, from the actual test results analysis, it is not satisfactory, for example: When the additive is chemically reacted, it sometimes produces new products, which have an impact on the engine and other parts of the motor vehicle; .
因此, 如何采用新技术、 新材料, 以提高石油产品在各个领域的 使用效率, 它是摆在人们面前的一大难题。 发明内容 本发明的目的在于克服现有技术中的不足而提供一种激光扫描电 原子谐振式碳氢催化装置, 它可提高碳氢化合物的催化过程, 例如燃 油的化学反应速度, 通过释放更多能量, 以达到节能环保的目的。 Therefore, how to adopt new technologies and new materials to improve the efficiency of petroleum products in various fields is a major problem facing people. SUMMARY OF THE INVENTION An object of the present invention is to provide a laser scanning power by overcoming the deficiencies in the prior art. An atomic resonant hydrocarbon catalytic device that enhances the catalytic process of hydrocarbons, such as the chemical reaction rate of fuel, by releasing more energy to achieve energy conservation and environmental protection.
本发明的另一目的在于提供一种激光扫描电原子谐振式碳氢催化 方法, 它可提高碳氢化合物的催化过程, 例如燃油的化学反应速度, 通过释放更多能量, 以达到节能环保的目的。  Another object of the present invention is to provide a laser scanning electric atom resonance type hydrocarbon hydrogen catalysis method which can improve the catalytic process of hydrocarbons, such as the chemical reaction speed of fuel oil, and achieve energy saving and environmental protection by releasing more energy. .
原子核除了具有电荷和质量外, 约半数以上的原子核具有自旋。 由 于原子核是带电荷的粒子, 自旋时即产生一个小磁场。 这些原子核的 能量在强磁场中将分裂成两个以上的量子化能级。 当适当波长的的电 磁辐射照射这些在磁场中的核时, 原子核便在这些磁诱导能级之间发 生跃迁。 磁诱导能级之间的能量差可表示为  In addition to the charge and mass, more than half of the nuclei have spins. Since the nucleus is a charged particle, a small magnetic field is generated when spinning. The energy of these nuclei will split into more than two quantized energy levels in a strong magnetic field. When electromagnetic radiation of the appropriate wavelength illuminates the nucleus in the magnetic field, the nucleus transitions between these magnetically induced energy levels. The energy difference between the magnetically induced energy levels can be expressed as
△ Ε= μ H。 / I = h v。 公式 (1 ) 当原子核吸收了能量恰好等于 h v。 的量子后,可以激发到能量较 高的能级上去。 h是普朗克恒量, V是辐射频率, I是自旋量子数氢质 子为 1/2, Ho 为磁场强度, ^是磁矩, 氢质子磁矩为(2. 793) (5. 049 X 10 尔格 /高斯)。因此可以通过公式(1 )计算所需的核磁共振参数。 △ Ε = μ H. / I = h v. Formula (1) When the nucleus absorbs energy, it is exactly equal to h v . After the quantum, it can be excited to the higher energy level. h is the Planck constant, V is the radiation frequency, I is the spin quantum number, the hydrogen proton is 1/2, Ho is the magnetic field strength, ^ is the magnetic moment, and the hydrogen proton magnetic moment is (2. 793) (5. 049 X 10 erg / Gauss). Therefore, the required nuclear magnetic resonance parameters can be calculated by the formula (1).
由上述各个物理化学理论可知, 化学反应过程的快与慢, 和反应 过程中的电子转移速度有关, 电子转移快反应速度就快, 反应就剧烈 放出的能量就多。 电子转移的快慢和电子自身的能量有关, 自身能量 高处在最高能级的电子参加化学反应, 底能级的电子在一定的条件下 吸收能量发生能级跃迁。 由低能级向高能级跃迁。  It can be known from the above various physical chemistry theories that the speed and the slowness of the chemical reaction process are related to the electron transfer speed in the reaction process, and the electron transfer speed is fast, and the reaction is vigorously released. The speed of electron transfer is related to the energy of the electron itself. The electrons whose energy is at the highest energy level participate in the chemical reaction, and the electrons of the bottom level absorb the energy level transition under certain conditions. Transition from low energy level to high energy level.
本发明就是通过应用激光技术和核磁共振技术, 使低能量的电子 获得能量; 高能量电子能量增加到更高, 提高化学反应速度, 释放更 多能量。 以燃油为例: 在激光的照射下燃油中的碳, 氢原子中的电子 会受到激光辐射的粒子能, 而变成激发态, 在强磁场和一定频率的电 磁辐射下碳, 氢质子核发生共振原子核由低能级向高能级跃迁, 电子 能级相应进一步变高, 使化学反应更加剧烈释放能量增 。  The invention uses laser technology and nuclear magnetic resonance technology to obtain energy for low-energy electrons; high-energy electron energy is increased to higher, chemical reaction speed is increased, and more energy is released. Taking fuel as an example: Under the irradiation of laser light, the carbon in the fuel, the electrons in the hydrogen atom are subjected to the energy of the laser radiation, and become the excited state. Under the strong magnetic field and a certain frequency of electromagnetic radiation, the carbon proton nucleus occurs. The resonance nucleus transitions from a low energy level to a high energy level, and the electron energy level is correspondingly further increased, so that the chemical reaction is more intense and the energy is released.
本发明的技术方案是: 一种激光扫描电原子谐振式碳氢催化装置, 它包括: 壳体、 激光 辐射阵列、 高目数金属网以及核磁共振隧道, 其特征在于: 在壳体内 衬有一绝缘层; 并在壳体的两端设有燃油入口及出口; 在壳体内靠近 燃油入口处设有第一激光辐射阵列, 其后面依次设有激光辐射折反射 片、 高目数金属网、 第二激光辐射阵列、 核磁共振隧道、 燃油出口; 其中, 高目数金属网上附着有铁氧体颗粒; 高目数金属网接有高频电。 The technical solution of the present invention is: A laser scanning electric atom resonance type hydrocarbon hydrogen catalytic device comprises: a casing, a laser radiation array, a high mesh metal mesh and a nuclear magnetic resonance tunnel, wherein: the casing is lined with an insulating layer; and is in the casing There are fuel inlets and outlets at both ends; a first laser radiation array is arranged in the casing near the fuel inlet, and a laser radiation reflection sheet, a high mesh metal mesh, a second laser radiation array, and nuclear magnetic resonance are sequentially disposed behind Tunnels, fuel outlets; among them, high-mesh metal meshes are attached with ferrite particles; high-mesh metal meshes are connected to high-frequency electricity.
其中, 第一激光辐射阵列的激光辐射强度为: 5mW-lW。  Wherein, the laser radiation intensity of the first laser radiation array is: 5mW-lW.
第二激光辐射阵列的激光辐射强度为: 5mW- 1W。  The intensity of the laser radiation of the second laser radiation array is: 5 mW - 1 W.
高目数金属网的目数为 200-800目。  The mesh number of the high mesh metal mesh is 200-800 mesh.
高目数金属网上附着的铁氧体颗粒为 2 X 2 X 2mm, 每平方厘米 20-40粒, 夹在金属网之间形成附着。  The ferrite particles attached to the high mesh metal mesh are 2 X 2 X 2 mm, 20-40 grains per square centimeter, and are sandwiched between the metal meshes to form an adhesion.
高目数金属网及核磁共振隧道线圈通有接有高频电, 其频率的范 围是 MHZ- KMHZ。  The high mesh metal mesh and the NMR tunnel coil are connected to high frequency power, and the frequency range is MHZ-KMHZ.
核磁共振隧道的磁极、 线圈均为一对以上。  The magnetic poles and coils of the nuclear magnetic resonance tunnel are one or more.
一种激光扫描电原子谐振式碳氢催化方法, 它包括:  A laser scanning electric atom resonance hydrocarbon catalytic method comprises:
A )、将待催化的碳氢介质置入一个设有入口、及出口的封闭容器 中;  A) placing the hydrocarbon medium to be catalyzed into a closed vessel having an inlet and an outlet;
B ) 、 让介质首先通过封闭容器中的第一激光辐射阵列, 并接受 第一激光辐射阵列的激光辐射; 个别没有受到辐射的介质被设在封闭 容器中折反射片的折反射光再次辐射; 其中, 激光辐射的强度为 5nW-lW; B), letting the medium first pass through the first laser radiation array in the closed container, and receiving the laser radiation of the first laser radiation array; the individual non-radiated medium is re-radiated by the deflected light of the deflecting sheet disposed in the closed container; Wherein, the intensity of the laser radiation is 5nW-lW ;
C) 、 接受过激光辐射的介质通过设在第一激光辐射阵列后方附着 有铁氧体颗粒的高目数金属网上; 并在接有高频电的高目数金属网的 作用下, 对介质的油分子进行分子极化, H、 C原子成一定激发态; 并 产生一定量的氢离子和铜离子; 铁氧体颗粒被高频电磁场振动和铜网 发生磨擦后有极其微小铁氧体磁粒被溶合在介质中形成磁性油液, 变 成高能激发态的极性磁液化介质;  C), the medium that has received the laser radiation passes through a high mesh metal mesh that is attached with ferrite particles behind the first laser radiation array; and under the action of a high mesh metal mesh with high frequency electricity, the medium The oil molecules undergo molecular polarization, and the H and C atoms form a certain excited state; and a certain amount of hydrogen ions and copper ions are generated; the ferrite particles are extremely small ferrite magnets after being vibrated by the high frequency electromagnetic field and the copper mesh. The particles are dissolved in the medium to form a magnetic oil, which becomes a polar magnetic liquefaction medium in a high energy excited state;
D) 、 处于高能激发态的极性磁液化介质, 通过设在高目数金属网 后方的第二激光辐射阵列, 第二激光辐射阵列'对其进行二次辐射, 其 中, 激光辐射的强度为 5mW- 1W, 对处于高能激发态的极性磁液化介质 进行再次激发, 使其能量更高; D) a polar magnetic liquefaction medium in a high energy excited state, the second laser radiation array is subjected to secondary radiation through a second laser radiation array disposed behind the high mesh metal mesh, wherein the intensity of the laser radiation is 5mW-1W, a polar magnetic liquefaction medium in a high energy excited state Re-energize to make it more energetic;
E) 、 经过二次激光辐射阵列辐射的处于高能激发态的介质, 在通 过设在第二激光辐射阵列后的核磁共振隧道时, 使介质中的 H、 C原子 核在强磁场和能诱导原子核共振的并和磁场相垂直的高频电磁辐射 下, H, C原子核产生共振向更高能级跃迁, 而核磁共振隧道的磁场强 度可依据下列公式计算:  E) The medium in the high-energy excited state irradiated by the secondary laser radiation array, the H and C nuclei in the medium are in a strong magnetic field and can induce nuclear resonance when passing through the nuclear magnetic resonance tunnel provided after the second laser radiation array Under the high-frequency electromagnetic radiation perpendicular to the magnetic field, the H, C nucleus produces resonance to a higher energy level transition, and the magnetic field strength of the nuclear magnetic resonance tunnel can be calculated according to the following formula:
△ Ε= μ H。 / I = h v。 公式 (1 ) 其中: h是普朗克恒量; V是辐射频率; I是自旋量子数氢质子为 1/2; Ho 为磁场强度; ^是磁矩; 氢质子磁矩为(2. 793) (5. 049 X 10 尔格 /高斯); △ Ε = μ H. / I = hv. Equation (1) where: h is the Planck constant; V is the radiation frequency; I is the spin quantum number hydrogen proton is 1/2; Ho is the magnetic field strength; ^ is the magnetic moment; the hydrogen proton magnetic moment is (2. 793 (5. 049 X 10 Erge/Gauss);
F) 、 经过两次激光辐射和电子核磁共振隧道的磁化后的介质, 此 时已处在高能激发态的极性磁液化状态, 在该种状态下的介质, 与未 进行过处理的介质相比, 在参与后面的燃烧化学反应时, 可以使反应 更加剧烈, 释放更多的能量, 同时此时介质中的铜离子也是非常好的 抗磨损剂, 它可以增强活塞的密封效果, 提高燃烧热效率, 起到节油 和减少排放的环保功效。 附图的简要说明 图 1是本发明激光扫描电原子谐振式碳氢催化装置的内部结构示 意图。 实施本发明的最佳方式 下面将结合附图及实施例对本发明作进一步说明。  F), the magnetized medium after two laser irradiation and electron nuclear magnetic resonance tunneling, which is in a state of high magnetic energy excited polar magnetic liquefaction, the medium in this state, and the untreated medium phase Compared with the combustion chemical reaction, it can make the reaction more intense and release more energy. At the same time, the copper ion in the medium is also a very good anti-wear agent, which can enhance the sealing effect of the piston and improve the thermal efficiency of combustion. , to save energy and reduce emissions of environmental protection. BRIEF DESCRIPTION OF THE DRAWINGS Fig. 1 is a schematic view showing the internal structure of a laser scanning electric atom resonance type hydrocarbon catalytic device of the present invention. BEST MODE FOR CARRYING OUT THE INVENTION The present invention will be further described with reference to the accompanying drawings and embodiments.
如图 1 所示, 一种激光扫描电原子谐振式碳氢催化装置, 它包括 壳体 1、 第一激光辐射阵列 2、 第二激光辐射阵列 6、 ^光辐射折反射 片 3、 高目数金属铜网 4、 铁氧体颗粒 5以及核磁共振隧道 7, 其特征 在于: 在壳体 1内衬有一绝缘层 8 ; 在壳体 1的两端设有燃油入口 9及 出口 10 ; 在壳体 1 内靠近燃油入口 9处设有第一激光辐射阵列 2、 激 光辐射折反射片 3、 高目数金属铜网 4、 第二激光辐射阵列 6、 核磁共 振隧道 7 ; 其中, 在高目数金属铜网 4上附着有铁氧体颗粒 5 ; 且高目 数金属铜网 4接有高频电; 核磁共振隧道 7, 它包括高频电源 11、 磁 极 12、 线圈 13。 As shown in FIG. 1, a laser scanning electric atom resonance type hydrocarbon hydrogen catalytic device comprises a casing 1, a first laser radiation array 2, a second laser radiation array 6, an optical radiation reflection sheet 3, and a high mesh number. Metal copper mesh 4, ferrite particles 5 and nuclear magnetic resonance tunnel 7, characterized The housing 1 is lined with an insulating layer 8; a fuel inlet 9 and an outlet 10 are provided at both ends of the housing 1; a first laser radiation array 2 and laser radiation are disposed in the housing 1 near the fuel inlet 9. a deflecting sheet 3, a high mesh metal copper mesh 4, a second laser radiation array 6, a nuclear magnetic resonance tunnel 7; wherein ferrite particles 5 are attached to the high mesh metal copper mesh 4; and high mesh metal copper The mesh 4 is connected to a high frequency power; the nuclear magnetic resonance tunnel 7, which includes a high frequency power source 11, a magnetic pole 12, and a coil 13.
其中, 第一激光辐射阵列的激光辐射强度为: 5mW- 1W; 第二激光 辐射阵列的激光辐射强度为: 5mW-lW。  Wherein, the intensity of the laser radiation of the first laser radiation array is: 5 mW - 1 W; and the intensity of the laser radiation of the second laser radiation array is: 5 mW - lW.
高目数金属铜网的目数为 200-800 目。  The mesh number of high mesh metal copper mesh is 200-800 mesh.
高目数金属铜网上附着的铁氧体颗粒为 2 X 2 X 2画, 每平方厘米 20-40粒, 夹在金属铜网之间形成附着。  The ferrite particles attached to the high mesh metal copper mesh are 2 X 2 X 2 drawn, 20-40 grains per square centimeter, and are sandwiched between the metal copper meshes to form an adhesion.
高目数金属铜网及核磁共振隧道的线圈中接有高频电, 其频率量 级范围是 MHZ- KMHZ。  The high-mesh metal copper mesh and the NMR tunnel have high-frequency power connected to the coil, and the frequency range is MHZ-KMHZ.
核磁共振隧道的磁极、 线圈均为一对以上。  The magnetic poles and coils of the nuclear magnetic resonance tunnel are one or more.
本发明的具体工作过程是- '  The specific working process of the present invention is - '
1 )、 将未经过处理的碳氢化合物, 例如燃油, 经燃油入口 9 送入 壳体 1内; 燃油首先经过第一激光辐射阵列 2的激光辐射;  1), sending untreated hydrocarbons, such as fuel oil, into the casing 1 through the fuel inlet 9; the fuel first passes through the laser radiation of the first laser radiation array 2;
2 )、 部分未经过辐射的燃油, 通过激光辐射折反射片 3 的激光反 射辐射, 燃油呈现为激发态;  2), part of the unradiated fuel, the laser reflects the laser reflecting radiation of the reflection sheet 3, and the fuel is in an excited state;
3 )、 此时燃油再通过附着有铁氧体颗粒 5 的、 并接有高频电高目 数金属铜网 4 ;  3) At this time, the fuel passes through the ferrite particles 5, and is connected with a high-frequency electric high-magnetic metal copper mesh 4;
4)、 此时燃油由于受到高目数金属铜网 4 周围形成高频电磁场的 影响, 燃油经过带有高频电磁场的铜网, 使油分子的质量重心和电场 重心分开, 即分子极化, H、 C原子成一定激发态, 并产生一定量的氢 离子和铜离子; '  4) At this time, the fuel is affected by the formation of a high-frequency electromagnetic field around the high-mesh metal copper mesh 4, and the fuel passes through a copper mesh with a high-frequency electromagnetic field, so that the mass center of gravity of the oil molecules and the center of gravity of the electric field are separated, that is, molecular polarization, The H and C atoms are in a certain excited state and produce a certain amount of hydrogen ions and copper ions;
5 )、 在高频电磁振动的作用下, 附着在高目数金属铜网 4 上的铁 氧体颗粒 5 受到高频电磁场振动和高目数金属铜网发生磨擦后, 有极 其微小铁氧体磁粒 5 被溶合在燃油中形成磁性油液, 即此时的燃油变 成高能激发态的极性磁液化燃油;  5), under the action of high-frequency electromagnetic vibration, the ferrite particles 5 attached to the high-mesh metal copper mesh 4 are subjected to high-frequency electromagnetic field vibration and high-mesh metal copper mesh, and there is extremely small ferrite. The magnetic particle 5 is dissolved in the fuel to form a magnetic oil, that is, the fuel becomes a high-energy excited state of the polar magnetic liquefied fuel;
6)、 在第二激光阵列 6的辐射下, 燃油中的各原子再次被激发到 更高的能态; 6), under the radiation of the second laser array 6, each atom in the fuel is excited again Higher energy state;
7)、 经过两次激光辐射的极性磁液化燃油, 通过核磁共振隧道 7 时,使燃油中的 H、 C原子核在强磁场和能诱导原子核共振的并和磁场 相垂直的高频电磁辐射下, H、 C原子核产生共振向更高能级跃迁, 使 化学反更加剧烈释放更多的能量。 最后, 经过激光和核磁共振隧道 7 处理过的极性磁液化燃油, 从壳体 1的燃油出口 10流出。  7), after two laser radiation of polar magnetic liquefied fuel, through the nuclear magnetic resonance tunnel 7, the H and C nuclei in the fuel are in a strong magnetic field and high-frequency electromagnetic radiation that can induce nuclear resonance and perpendicular to the magnetic field. The H and C nuclei generate resonances to higher energy levels, causing the chemical reaction to release more energy more intensely. Finally, the polar magnetic liquefied fuel treated by the laser and nuclear magnetic resonance tunnel 7 flows out of the fuel outlet 10 of the casing 1.
经过本发明处理后的燃油, 由于其已处在高能激发态的极性磁液 化状态, 在该种状态下的燃油, 与未进行过处理的燃油相比, 在参与 后面的燃烧化学反应时, 可以使反应更加剧烈, 释放更多的能量, 同 时此时燃油中的铜离子, 也是非常好的抗磨损剂, 它可以增强活塞的 密封效果, 提高燃烧热效率, 起到节油和减少排放的环保功效。  The fuel treated by the present invention has a polar magnetic liquefaction state in a high-energy excited state, and the fuel in this state is involved in the subsequent combustion chemical reaction as compared with the untreated fuel. It can make the reaction more intense and release more energy. At the same time, the copper ion in the fuel is also a very good anti-wear agent. It can enhance the sealing effect of the piston, improve the combustion heat efficiency, and save the fuel and reduce emissions. efficacy.
一种激光扫描电原子谐振式碳氢催化方法, 它包括:  A laser scanning electric atom resonance hydrocarbon catalytic method comprises:
A )、将待催化的燃油置入一个设有燃油入口 9、出口 10的封闭容 器的壳体 1中;  A), the fuel to be catalyzed is placed in a casing 1 having a closed inlet of the fuel inlet 9, the outlet 10;
B )、让燃油首先通过封闭容器的壳体 1中的第一激光辐射阵列 2, 并接受第一激光辐射阵列 2 的激光辐射; 个别没有受到辐射的燃油被 设在封闭容器中折反射片 3 的折反射光再次辐射; 其中, 激光辐射的 强度为 5mW-lW;  B), letting the fuel first pass through the first laser radiation array 2 in the casing 1 of the closed container, and receiving the laser radiation of the first laser radiation array 2; the individual fuel that is not irradiated is disposed in the closed container in the closed reflector 3 The reflected light is again radiated; wherein the intensity of the laser radiation is 5 mW-lW;
C) 、 接受过激光辐射的燃油通过设在第一激光辐射阵列 2后方附 着有铁氧体颗粒的高目数金属铜网 4 上, 并在接有高频电的高目数金 属铜网 4的作用下, 对燃油的油分子进行分子极化, H、 C原子成一定 激发态; 并产生一定量的氢离子和铜离子; 铁氧体颗粒 5 被高频电磁 场振动和铜网发生磨擦后有极其微小的铁氧体磁粒被溶合在燃油中形 成磁性油液, 即此时的燃油变成高能激发态的极性磁液化燃油;  C), the fuel that has received the laser radiation passes through the high-mesh metal copper mesh 4 which is attached with the ferrite particles behind the first laser radiation array 2, and is connected to the high-mesh metal mesh 4 with high-frequency electricity. Under the action of the product, the oil molecules of the fuel are molecularly polarized, and the H and C atoms are in a certain excited state; and a certain amount of hydrogen ions and copper ions are generated; the ferrite particles 5 are vibrated by the high frequency electromagnetic field and the copper mesh is rubbed. An extremely small ferrite magnetic particle is dissolved in the fuel to form a magnetic oil, that is, the fuel becomes a high-energy excited state of the polar magnetic liquefied fuel;
D) 、 处于高能激发态的极性磁液化燃油, 通过设在高目数金属铜 网 4后方的第二激光辐射阵列 6,第二激光辐射阵列 6对其进行二次辐 射, 其中, 激光辐射的强度为 5mW-lW, 对处于高能激发态的极性磁液 化燃油进行再次激发, 使其能量更高; '  D), a polar magnetic liquefied fuel in a high energy excited state, which is secondarily irradiated by a second laser radiation array 6 disposed behind the high mesh metal copper mesh 4, wherein the laser radiation The intensity is 5mW-lW, and the polar magnetic liquefied fuel in the high energy excited state is re-excited to make its energy higher;
E) 、 经过二次激光辐射阵列辐射的处于高能 #发态的燃油, 在通 过设在第二激光辐射阵列后的核磁共振隧道时,使燃油中的 H、 C原子 核在强磁场和能诱导原子核共振的并和磁场相垂直的高频电磁辐射 下, H、 C原子核产生共振向更高能级跃迁, 而核磁共振隧道的磁场强 度及高频辐射频率可依据下列公式而定: E) The fuel in the high energy state emitted by the secondary laser radiation array, the H and C atoms in the fuel are passed through the nuclear magnetic resonance tunnel provided after the second laser radiation array Under the high magnetic field and the high frequency electromagnetic radiation which can induce the resonance of the atomic nucleus and perpendicular to the magnetic field, the H and C nucleus will resonate to a higher energy level transition, and the magnetic field strength and high frequency radiation frequency of the NMR tunnel can be based on the following formula. And set:
△ E二 μ H。 / I = h v。 公式 (1 ) 其中: h是普朗克恒量; V是辐射频率; I是自旋量子数氢质子为 1/2; Ho 为磁场强度; ^是磁矩; 氢质子磁矩为(2. 793) (5. 049 X 10 尔格 /高斯)。 △ E two μ H. / I = hv. Equation (1) where: h is the Planck constant; V is the radiation frequency; I is the spin quantum number hydrogen proton is 1/2; Ho is the magnetic field strength; ^ is the magnetic moment; the hydrogen proton magnetic moment is (2. 793 (5. 049 X 10 Erge / Gauss).
其原理是: 当原子核吸收了能量恰好等于 。 的量子后, 可以激 发到能量较高的能级上去。 因此可以通过该公式 (1 ) 计算所需的核磁 共振参数。  The principle is: When the nucleus absorbs energy, it is exactly equal to . After the quantum, it can be excited to the higher energy level. Therefore, the required nuclear magnetic resonance parameters can be calculated by the formula (1).
F) 、 经过两次激光辐射和电子核磁共振隧道的磁化后的燃油, 此 时已处在高能激发态的极性磁液化状态, 在该种状态下的燃油, 与未 进行过处理的燃油相比, 在参与后面的燃烧化学反应时, 可以使反应 更加剧烈, 释放更多的能量, 同时此时燃油中的铜离子, 也是非常好 的抗磨损剂可以增强活塞的密封效果, 提高燃烧热效率, 起到节油和 减少排放的环保功效。 , 工业应用性 本发明将激光技术和核磁共振技术用于碳氢介质的处理,由带有高 频电磁场的铜网和铁氧体磁体振动磨擦产生的高能激发态磁性油介 质, 在燃烧时能释放出更多的能量, 而铜离子的密封作用可带来的综 合的节能环保效果。 本发明可广泛应用在燃油、 燃气装置, 如内燃机、 燃气轮机; 以及锅炉环保等方面。  F), the magnetized fuel after two laser irradiation and electron nuclear magnetic resonance tunnels, which is in a state of high-energy excited state of polar magnetic liquefaction, the fuel in this state, and the fuel that has not been treated Compared with the subsequent combustion chemical reaction, the reaction can be made more intense and more energy is released. At the same time, the copper ions in the fuel are also very good anti-wear agents to enhance the sealing effect of the piston and improve the combustion heat efficiency. It has the environmental protection effect of saving fuel and reducing emissions. INDUSTRIAL APPLICABILITY The present invention uses laser technology and nuclear magnetic resonance technology for the treatment of a hydrocarbon medium, and a high-energy excited state magnetic oil medium generated by vibrational friction of a copper mesh with a high-frequency electromagnetic field and a ferrite magnet can be burned. More energy is released, and the sealing effect of copper ions can bring about comprehensive energy saving and environmental protection effects. The invention can be widely applied to fuel oil, gas appliances, such as internal combustion engines, gas turbines, and environmental protection of boilers.

Claims

权 利 要 求 书 Claim
1、 一种激光扫描电原子谐振式碳氢催化装置, 它包括壳体、 激光 辐射阵列、 高目数金属网、 核磁共振隧道, 其特征在于: 在壳体内衬 有一绝缘层; 在壳体的两端设有入口及出口; 在壳体内设有第一激光 辐射阵列、 激光辐射折反射片、 高目数金属网、 第二激光辐射阵列及 核磁共振隧道; 其中, 在高目数金属网接有高频电; 并在高目数金属 网上附着有铁氧体颗粒。 A laser scanning electric atom resonance type hydrocarbon hydrogen catalytic device comprising a casing, a laser radiation array, a high mesh metal mesh, and a nuclear magnetic resonance tunnel, wherein: the casing is lined with an insulating layer; The two ends are provided with an inlet and an outlet; a first laser radiation array, a laser radiation deflecting sheet, a high mesh metal mesh, a second laser radiation array and a nuclear magnetic resonance tunnel are arranged in the casing; wherein, in the high mesh metal mesh High frequency electricity is connected; ferrite particles are attached to the high mesh metal mesh.
2、 根据权利要求 1所述的激光扫描电原子谐振式碳氢催化装置, 其特征在于: 所述的第一激光辐射阵列的激光辐射强度为: 5mW- 11 2. The laser scanning electric atom resonance type hydrocarbon hydrogen catalytic device according to claim 1, wherein: the laser radiation intensity of said first laser radiation array is: 5mW-11
3、 根据权利要求 1所述的激光扫描电原子谐振式碳氢催化装置, 其特征在于: 所述的第二激光辐射阵列的激光辐射强度为: 5mW- 1W。 3. The laser scanning electrical atom resonance type hydrocarbon catalytic device according to claim 1, wherein: the laser radiation intensity of the second laser radiation array is: 5 mW - 1 W.
4、 根据权利要求 1所述的激光扫描电原子谐振式碳氢催化装置, 其特征在于: 所述的高目数金属网的目数为 200- 800目。  4. The laser scanning electric atom resonance type hydrocarbon hydrogen catalytic device according to claim 1, wherein: said high mesh metal mesh has a mesh number of 200 to 800 mesh.
5、 根据权利要求 1所述的激光扫描电原子谐振式碳氢催化装置, 其特征在于: 在所述的高目数金属网上附着的铁氧体颗粒为 2 X 2 X 2mm, 每平方厘米 20 40粒, 夹在金属网之间形成附着。  5. The laser scanning electric atom resonance type hydrocarbon hydrogen catalytic device according to claim 1, wherein: the ferrite particles attached to the high mesh metal mesh are 2 X 2 X 2 mm, 20 per square centimeter. 40 capsules were sandwiched between metal meshes to form an attachment.
6、 根据权利要求 1所述的激光扫描电原子谐振式碳氢催化装置, 其特征在于: 所述的高目数金属网的频率等级范围是: MHZ- KMHZ。  6. The laser scanning electric atom resonance type hydrocarbon hydrogen catalytic device according to claim 1, wherein: the high mesh metal mesh has a frequency level range of: MHZ-KMHZ.
7、 根据权利要求 1所述的激光扫描电原子谐振式碳氢催化装置, 其特征在于: 所述的核磁共振隧道, 它包括高频电源、 磁极及线圈线 圈中通有高频电所产生的磁疡和磁极磁场垂直。  7. The laser scanning electric atom resonance type hydrocarbon hydrogen catalytic device according to claim 1, wherein: the nuclear magnetic resonance tunnel comprises a high frequency power source, a magnetic pole and a coil coil which are generated by high frequency electricity. The magnetic ulcer is perpendicular to the magnetic field.
8、 根据权利要求 1或 7所述的激光扫描电原子谐振式碳氢催化装 置, 其特征在于: 所述的核磁共振隧道的频率等级范围是: MHZ- KMHZ。  The laser scanning electric atom resonance type hydrocarbon hydrogen catalysis device according to claim 1 or 7, wherein: the frequency grading range of the nuclear magnetic resonance tunnel is: MHZ-KMHZ.
9、 根据权利要求 1或 7所述的激光扫描电原子谐振式碳氢催化装 置, 其特征在于: 所述的核磁共振隧道中的磁极及线圈至少为一对以 上。  The laser scanning electrical atom resonance type hydrocarbon catalytic device according to claim 1 or 7, wherein the magnetic resonance tunnel has at least a pair of magnetic poles and coils.
10、 一种激光扫描电原子谐振式碳氢催化方法, 它包括:  10. A laser scanning electrical atom resonance hydrocarbon catalytic method comprising:
A )、将待催化的含碳氢的介质置入一个设有入口及出口的封闭容 器中; B ) 、 让介质首先通过封闭容器中的第一激光辐射阵列, 并接受 第一激光辐射阵列的激光辐射; 个别没有受到辐射的介质被设在封闭 容器中折反射片的折反射光再次辐射; A) placing the hydrocarbon-containing medium to be catalyzed into a closed vessel provided with an inlet and an outlet; B), letting the medium first pass through the first laser radiation array in the closed container, and receiving the laser radiation of the first laser radiation array; the individual non-radiated medium is re-radiated by the deflected light of the deflecting sheet disposed in the closed container;
C) 、 接受过激光辐射的介质通过设在第一激光辐射阵列、 附着有 铁氧体颗粒的高目数金属网上; 并在接有高频电的高目数金属网的作 用下, 对介质中的油分子进行分子极化, H、 C 原子成一定激发态; 并 产生一定量的氢离子和铜离子; 铁氧体颗粒被高频电磁场振动和铜网 发生磨擦后有极其微小铁氧体磁粒被溶合在介质油中形成磁性油液, 变成高能激发态的极性磁液化介质;  C), the medium that has received the laser radiation passes through the first laser radiation array, the high mesh metal mesh to which the ferrite particles are attached; and the high mesh metal mesh with the high frequency electricity, the medium The oil molecules in the molecule undergo molecular polarization, and the H and C atoms are in a certain excited state; and a certain amount of hydrogen ions and copper ions are generated; the ferrite particles are extremely small ferrite after being vibrated by the high frequency electromagnetic field and the copper mesh. The magnetic particles are dissolved in the medium oil to form a magnetic oil, and become a polar magnetic liquefaction medium of a high energy excited state;
D) 、 处于高能激发态的极性磁液化介质, 通过第二激光辐射阵列 对其进行二次辐射, 使处于高能激发态的极性磁液化介质进行再次激 发, 使其能量更高;  D) a polar magnetic liquefaction medium in a high-energy excited state, which is secondarily irradiated by a second laser radiation array to re-excitation the polar magnetic liquefaction medium in a high-energy excited state to make the energy higher;
E) 、 经过二次激光辐射阵列辐射的处于高能激发态的介质, 在通 过核磁共振隧道时, 使燃油中的 H、 C原子核在强磁场和能诱导原子核 共振的并和磁场相垂直的高频电磁辐射下, H, C原子核产生共振向更 高能级跃迁; 核磁共振隧道的磁场强度及辐射频率可依据下列公式计 算:  E) A medium in a high-energy excited state radiated by a secondary laser radiation array. When passing through a nuclear magnetic resonance tunnel, the H and C nuclei in the fuel are in a strong magnetic field and a high frequency that can induce the resonance of the atom and perpendicular to the magnetic field. Under electromagnetic radiation, the H, C nucleus produces resonance to a higher energy level transition; the magnetic field strength and radiation frequency of the NMR tunnel can be calculated according to the following formula:
Δ Ε= μ H o / I = h v o 其中: h是普朗克恒量; v。 是辐射频率; I是自旋量子数氢质子 为 1/2 ; Ho 为磁场强度; 是磁矩; 氢质子磁矩为(2. 793) (5. 049 X 10 ^ 尔格 /高斯); Δ Ε = μ H o / I = hvo where: h is Planck constant; v. Is the radiation frequency; I is the spin quantum number hydrogen proton is 1/2; Ho is the magnetic field strength; is the magnetic moment; the hydrogen proton magnetic moment is (2. 793) (5. 049 X 10 ^ erg / Gauss);
F) 、 经过两次激光辐射和电子核磁共振隧道的磁化后的燃油, 此 时已处在高能激发态的极性磁液化状态, 在该种状态下的燃油, 与未 进行过处理的燃油相比, 在参与后面的燃烧化学反应时, 可以使反应 更加剧烈, 释放更多的能量; 同时此时燃油中的铜离子可增强活塞的 密封效果, 提高燃烧热效率, 起到节油和减少排放的环保功效。  F), the magnetized fuel after two laser irradiation and electron nuclear magnetic resonance tunnels, which is in a state of high-energy excited state of polar magnetic liquefaction, the fuel in this state, and the fuel that has not been treated Compared with the combustion chemical reaction, it can make the reaction more intense and release more energy. At the same time, the copper ions in the fuel can enhance the sealing effect of the piston, improve the combustion heat efficiency, and save fuel and reduce emissions. Environmental protection.
11、根据权利要求 10所述的激光扫描电原子谐振式碳氢催化方法, 其特征在于: 所述的高目数金属网的频率等级范围是: 腿 Ζ- ΚΜΗΖ。  The laser scanning electric atom resonance type hydrocarbon hydrogen catalytic method according to claim 10, wherein: the high mesh metal mesh has a frequency level range of: leg Ζ-ΚΜΗΖ.
PCT/CN2007/000262 2006-01-27 2007-01-24 A laser-scanning electric atom-resonating hydrocarbon-catalyzing method and a device thereof WO2007085189A1 (en)

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