Resonance barrel apparatus used in hydrogen generating appa-ratus

Description

DETAILED DESCRIPTION OF THE INVENTION The present invention 0. The present invention relates to an apparatus for separating hydrogen gas and oxygen gas from water using a non-electrolytic process.

fA No. 302.307 (HydrvgenGene rator System: Hydrogen generation system) Nigo, Guo Cheng, who separates hydrogen and oxygen atoms from water A typical process is described. In the process, water is passed between a pair of grates formed by similar non-oxidizing metals. One pull rate is positive 11t due to the extremely low surface current voltage/current source.

A potential is applied to the other grate, and a negative potential is applied to the other grate. , the sub-atomic (sub-ato) of the @current voltage mic) action separates hydrogen atoms and oxygen atoms. At this time, the pollution in the water is also #F#ll'-r Because of this, it can be collected and used as a book, or disposed of as waste beams. This also helps in recombining hydrogen and oxygen to produce pure water.

An application source 1 is applied between the two grates. '15) k, I, L adjustment! IfI waves are not generated again. 1st 6fU 115. H: / X (fL (r static force and ( It acts on water molecules at 7-℃ and exerts a dynamic force on the water molecules. When nm and pressure are converted into Pruss, it acts as a dynamic force and promotes cooling from water molecules. “PI; If, f The pressure can be higher than 1 - the origin of the water stalk (・kehi), and the upper J/1 (US 1F, '+ The relationship between the arrangement or shape of the flow rate and the gas generation efficiency is shown graphically in the FL application.

1 above] US%πF 1.ti Mll 6 Build the structure 11X of the sword 1it starting device 6 in Kokichi, Furthermore, IJl, (1) Increase the area of the plate, (2) Reduce the spacing between the plates, +317 It has been disclosed that the production rate of gaseous hydrogen can be increased by changing the physical shape of the rate.

The present invention is a device for separating hydrogen and enzymes from water. (It is an object of the present invention to provide a device having an improved structure so as to promote the separation of hydrogen and oxygen. The purpose is to develop an improved structure that can enhance the subatomic action in electrolytic growth.

Furthermore, the present invention has an improved structure that can break down the FR-J7 guatomic effect as described above. The purpose of this invention is to provide a device ft that can

Furthermore, the present invention provides an improved llk structure so as to be able to reduce the velocity of the floating body caused by the f:r'v atomic action as described in "-". The purpose is to provide equipment.

In the device of Kiyo Iruj, the basic structure is similar to that of the U.S. Pat. T! 1jp is used for 7.

In the apparatus of the present invention - U r, j: , Jl' j% The spacing between the positive element of the exciter consisting of 14'$'l of shelling 141 and the element of I'l is formed to form a resonance '7: l11-1 Keno[3] at a predetermined frequency. I'm visiting.・t8. , in a preferred embodiment of the invention said excitation device v4. is spherical q(-.

The surface flow pressure is distorted by the resonant wavelength and the resonant wavelength.

When the frequency forces are combined, it is flattened and the 1st r'A t'W1. The -sive atomic action of 'I' and E is greatly strengthened, and this action causes the water molecule to change to j! i-attack- It is separated into atomic structures at an extremely fast rate of 1#.

The generated gas atoms are made to move within the 4;11 reed, and when released from the exit, form a W jet of the form 1i. Accelerated like V Gofu.

The front d1 camera uses high-velocity gas and is equipped with a large exit.

Preferred practice 15. Come to Rinni e, both 4h nitrogen 1i The same sol-to structure consists of an algebraic number of elements arranged in a row of elements. It is released at high speed and used for -C.

b) The present invention will be explained in detail with reference to the drawings. FIG. 1 shows the simplest embodiment of the present invention in HIIA terms. In FIG. 1, the apparatus of the present invention, which is assembled at 10, is assembled with a spherical housing 9, which has tjF41-11. fc 'A-body release 1-18 and its A-body release 1' 8μ) One system internal member 13 that spreads upwards and the entire age λ.

A spherical body 5 whose diameter is much smaller than that of the housing 9 is placed over the medium heat in the spherical housing 9. Outside 1 The sphere 9 which becomes the 111 shell is connected to the negative (till). That is, the '4 ()!+1 shell 9 is supplied with a negative it current ' through the terminal 16 and the wire 17. [EE/A current is applied to. The sphere 15, which is the inner element, is the water intake l1 of the housing 10. 2 also has a support member 11 protruding into its housing 1 ( ); The sphere 15 is connected to the positive target via the wire 14 extending through the supporting member 11 and the terminal 18.

The container 5 is filled with water 4 to a level where the entire food body described above is submerged in water, and water is supplied from a snake o6. Water 4: Outside from eiJ water intake RO 12 (Fi l+ is taken into the shell 9.

As described in the US patent published by the inventor of the former Soviet Union, direct current H2/current has an effect on water molecules μlj l(' The J sword is a ding. Atomic action decomposes water molecules into their constituent atoms, liberating hydrogen gas and oxygen gas from the water at a ratio of 1/2. Also, the gases in the music that had been escaping in the water, such as the profanity, are also dispersed.

As mentioned above, the gross process rJ of the present invention [t ”, since there is no negative contaminant content, 75-power hI-) However, any type of water can be used for 1ψ. <is! As the gas is liberated, it is separated and precipitated in the container C).

The present invention's ``bucosesque'' does not actually form hydrogen, but only liberates it first, so it is highly efficient at the pole (v). The energy consumption of the released hydrogen is extremely large. Therefore, 1 μm current voltage ↓ll lI4 is very low, and NI is also ignored-'c@ru culm is small.

The above-mentioned rice purchaser of the tree brother T BI! For fW+ applications, the prescribed ' A method and equipment for increasing the hydrogen output relative to the injection force are shown in Table 1. For example, consider the % impact that plate spacing and plate 1lri ramming have on hydrogen output. Then, hydrogen release can be promoted by converting the current, the pressure/electric current, into a /'f' pulse and applying a direct current that is not subjected to F waves. Crow again,■ The gas output increases in proportion to the total potential.

When increasing the hydrogen output by such means, we are controlling the physical force w ft+n that is applied to water molecules. This more dynamic and static force control has limitations.

The present invention provides one means of opening as described above ("J etc. force/(7 ) (Used in I, but especially I white'm, fabric: pressure/current) and relates to rusu.

The present invention relates to the movement of water molecules as they move from one great to the other, or This is because it has been found that it is possible to set the grating interval of the excitation device to the length of ("J times or subdivision e) - force of the wavelength. Thus, in the present invention, the predetermined The excitation device is configured to form a resonant cavity at a number of revolutions.

1- That is, in FIG. 1, the distance from the outer surface of the medium-heated sphere 15 to the inner surface 91 of the outer wall 9 of the housing 10 is equal to When the wavelength is matched with a physical force with the same wavelength and frequency, the fully open inside of the housing 9 becomes a resonant nitrogen cylinder, and the water molecules are violently moved back and forth. As you can understand from the net, as long as the starting force is given, Water molecules continue to collide from one surface to the next.

In the single spherical configuration shown in FIG. 1, there are infinite directions in which water molecules move from the inner sphere 15 toward the inner surface 9a of the outer wall 9 of the outer spherical housing 10. Considering only seven molecules, the movement of the water molecules is resisted by the water under normal conditions. The outer surface of the central sphere 15 and the outer wall 9 When the distance between the inner surfaces 9a of You can see the increased resistance of the water.

Further, the water molecules collide with the inner surface 9a of the outer wall 9, and then are reflected and collide with the inclined surface, where they are reflected again. This movement continues indefinitely until the applied energy is cut off. Thus, the resonant network forces the water molecules to move continuously and geometrically increases their velocity.

The motion of the seven water molecules described above is as follows, considering that the number of water molecules is infinite, and that impact is applied not only from collisions between water molecules but also from collisions between water molecules. The speed of the movement becomes even greater.

When the physical action on the water molecules in the resonance tube 3 becomes stronger, The decomposition of water molecules into their constituent atoms is directly affected. When this water decomposition occurs, hydrogen and acid-based L are liberated from the water. and other gases can also be set into motion in the same way as water molecules. The gas atoms are reflected by the inner surface 9a of the outer wall 9 in geometric proportion to the applied energy and collide with each other. In this case, water resistance becomes less of a problem.

In the graph of Fig. 2, the DC input voltage a is equal to the frequency of the resonant body 3 as shown in the waveform (per second). pulsed.

The pulsing of the direct current is periodically interrupted as shown in the graph of FIG. 2A in order to enhance the effect of the regulated DC voltage/current applied to the water molecules to liberate the gas. That is, pulsed direct current C, C, C2 is cut off at intervals of 1, D2, D. In addition, As shown in Figure 2B '1', the current flow may be interrupted non-periodically, i.e. in Figure 2B. or Lus C, C,, C2, C5... the interval, interval ( Interruption time) E,, E2, E.

... are different from each other.

Returning to FIG. 1 again, the discharge port (opening) 8 is provided at the top of the outer wall 9 of the resonant cavity 3 as described above. Gas atoms 7 that are repeatedly colliding back and forth within the pear barrel 3 may pass through the discharge port 8. The motion of the gas atoms 7 is intensified as described above and becomes extremely fast when passing through its emission D8. That is, the gas atoms 7 are pushed out from the outlet 8 by 9 ftg as if being propelled by a sheet.

The structure shown in FIG. 1 has one ball 9 and another ball 19 arranged inside it. The distance between the outward direction of the inner sphere 15 and the inner surface 9a of the outer sphere 9 is determined by the DC voltage of a predetermined frequency/[f is chosen to form a resonant cavity for the physical force of i. Resonant cavities of different configurations may also be used.

The apparatus 20 shown in FIG. 3 is an embodiment illustrating one particular example of the application of the present invention. Water 4 enters the nozzle 19 inside the closed sphere 9. An interview will be introduced.

The structure of FIG. 3 is functionally almost the same as that of FIG. However, in this embodiment, the diameter of the outlet 8 and the diameter of the nozzle 2 are selected. The diameter of the hole in the nozzle 2 is determined by the gas release rate. In other words, the hole diameter of the nozzle 2 must be large enough to emit an appropriate amount of gas to maintain the following, but the speed of the emitted gas is such that it does not blow away the moxibustion. It's so big that you can't see it. The direction of high-speed air and water discharged from the nozzle 2 is set to the open side 1 by the guide member 13. gas 7 f-4 It may be ignited by the igniter 25, or may be used directly for other purposes.

Figure 1.3.7 shows an excitation [1i1t resonant cavity constructed by a two-sphere structure, an inner and an outer sphere, in a grosses for subatomic action. A resonant cavity may also be formed using the shape described in the US Patent Application No. 1, line R1. Both! ? , 1l Regardless of the shape, l=1 can intensify the gas emission sound due to subatomic action.

However, which structure is most productive depends on the usage.

The resonant cavity shown in FIG. 9 consists of an elongated exciter 31. The space between the beams between the elements 33 and 36 forms a resonant cavity. In this embodiment, 35 gases are ejected along the slots 32.

FIG. S shows the construction of a coaxial excitation tube shown as a preferred embodiment in the above-mentioned US patent application. In this embodiment, the beam gap 34 between the inner grate 39 and the inner surface of the outer g111 element 370 is adjusted so that it resonates at a certain frequency. The input direct current is pulsed accordingly. Gas is both niremen) 37 ．． 39 and the excitation device end 38 released from.

The excitation device 40 in FIG. 6 is a wavefront excitation device described in U.S. Pat. This is an improved excitation system that strengthens the sag atomic effect.

In the embodiment shown in FIG. The beam gap 46 between the 7' routes 41 and 42 is designed to be used together with the special W frequency as described above. In this embodiment, instead of the flow of atoms moving back and forth and having an overall forward component, the crests 47 and troughs 49 of the waves cause the atoms to move with both forward and backward components. This means that the interlocking distance of atoms becomes longer. This intensifies the sag atomic action and increases the flow rate of gas 45 released from end 43 of exciter 40.

In FIG. 7, a plurality of resonant cavities (excitation devices) 50a to 50r+ similar to those shown in FIG. It's being ignored. Water 52 is contained in the housing; are arranged in a row. Each exciton 508 to 5 (center element of Jn) 5:3 a to 53 n V (- is applied with a positive potential through the terminal 64, and a negative potential is applied to the external I elements 558 to 55nK. .

As previously stated, the iFi current =, F+, / current is made to pulse with a repetition frequency matched to the frequency of the resonant cavity. Gases 54a-54n emitted from each excitation device 508-50n are directed to upper chamber 58 by guide wall 56. guided by. In its upper chamber 58 a high velocity gas 54 is accumulated. The pressure within upper chamber 58 increases in proportion to the amount of high velocity gas 54 accumulated.

As mentioned above, in the embodiment shown in FIG. This is because if the amount is exceeded, the gas release rate becomes too high and the moxibustion is no longer maintained, potentially causing a packfire.

However, in the embodiment of FIG. 7n may be larger than the hole of the nozzle 2 shown in FIG. That is, in the 71st embodiment, the power of the individual exciters is not used to maintain the flame, so the hole size C' is less of a problem, and there is less of a risk of packfire. It is from. The output from each exciter is stored as gas 54 in master chamber/par 58.

Fig. g, d, and Fig. 3 show an example in which the excitation devices of Fig. 3 are used in an algebraic number of 3) 1. The operation of the individual exciters is the same as in FIG. 3, but in FIG. 45 the flame from each exciter' is collected in chamber 75.

In addition, the word ``1 no'l/-) J Toy 5 refers to the above-mentioned niremen [1) j, and it is limited to a flat structure.'' This shall also include the remains in the tank.

[Brief explanation of the drawing]

Figure 1 shows an example of the simplest fx structure j4 of the device of the present invention. rate f Figure 3 shows the waveform of C acid, the gods of light, and Figure 3 is an example of a device using the structure of Figure 1. The figure shows an example of a structure that replaces the vI structure in Figure 1. Figure 5 is a diagram showing another example of a structure that can be substituted for the structure in Figure 7. FIG. 7 is a diagram showing a row of lx Ihh decorations as shown in FIG. 7 in a preferred embodiment of the present invention, FIG. , 7 is a diagram showing a row of excitation devices such as 1- shown in FIG. 0...3-point housing, 13...gaseous internal phase, 15... Sphere. Engraving of the drawings (no changes to the content) -n Commissioner of the Japan Patent Office 1. Indication of the case 1982 Patent Application No. 23663 2. Title of the invention Resonant cavity device 3 used in a hydrogen generator. Relationship Name: Stanley A. Mayer 4, Agent (1) Engraving of the drawings (no changes to the contents). J&-Nunno Jll for two bucks.

Claims

[Claims] (+l) An apparatus for separating hydrogen and oxygen from water by a non-N-ionic process, comprising: a blood flow voltage/current source having positive and negative terminals, means for connecting one of said pair of excitation elements to said negative terminal, and means for connecting to a terminal of said excitation element pre-distribution of the other pair; , and the electric current LE applied between the pair of excitation elements by the DC voltage/current source)? the space between the two elements forms a resonant cavity for a predetermined wavelength; This device is characterized by converting the front power distribution into a noggle. (2) The pair of excitation elements are composed of a first sphere in the middle chamber and a second sphere arranged in the center of the first sphere and which is considerably smaller than the first sphere, and the first sphere The device according to item (1), characterized in that the device has a water inlet and a gas discharge “J”. The device described in the scope (1) of the patent Ha Aokyu. ↓ Bamboo W1 is characterized in that it is made up of smaller spheres, and the gases generated by the plurality of pairs of excitation elements are collected in a common chatuba.・Scope of scope No. 31 (apparatus described in *31. The apparatus according to paragraph (1), paragraph 1, characterized in that the stage has a nozzle having a jet of selected size i1. (6) A pair of excitation elements in the old system are arranged on the 4th side, and the element placed on the outside 1111 is equipped with 4 slots extending in the longitudinal direction, so that air and body are emitted from the 11111 side. %WIR μ range when waiting! The apparatus described in paragraph (1). The apparatus according to item (1) of the scope of the Revision H~Required, characterized in that the end of the apparatus has an opening (7), and the gas is discharged from the open end. The feature is characterized in that the pair of excitation elements are formed by flat plates, and at least one end of each of the plates is opened upwardly. Dehiscence as described in section. (9) The device according to claim 11, characterized in that the pair of excitation elements are flat plates; 6. The device according to claim (9), characterized in that the surface causes the atoms to move back and forth and back and forth. 1. The device N according to item (2) of the scope of the invention, wherein each of the pairs of excitation elements consists of a first sphere and a smaller sphere of μ:); Place the 2nd sphere on medium heat of the 7th sphere? An ignition device for igniting gas generated from two or more spheres, each having a means for generating three spheres; Paragraph (3) H "Apparatus listed in H. θ Drift in a chamber in which an excitation element collects the flame from each of the excitation elements, and 17< ?lI? incoming) Usage 1 Exit 1- 1. The device according to claim 02 t1-. Q4] Select one element that is poorly arranged in the above row. a housing containing water, and a water reservoir I')t in the housing. The apparatus according to claim 40, characterized in that means for maintaining the tail height or higher is ir#(,Q). θ51+7fJ*: Each of the excitation elements is connected to A special ice-boosting system featuring a 17m extra step to maintain the excitation elements at a water level of 9r feet. ), Disciple (]ri tomb d [device k listed in 1. Cod front Ru:・(Rusu conversion means periodically interrupts cod・Rusu conversion)・Dan (c-1 face is showing 11 With the temple- Fru! hW [device bar according to claim (1). 01 The Noculus Jugyu stage is characterized by the fact that it is equipped with 14 ft of medium + all stages, with the exception of the Gi/J Luz conversion. Tale i: The excitation element must be non-oxidizing!