JP2002055198A - Substance activating device - Google Patents

Abstract

PROBLEM TO BE SOLVED: To further enhance the degree to activate a substance. SOLUTION: This substance activating device is structured by combining a first substance activating means 10 and a second substance activating means 20. Both of them are provided with layers 11, 12 of radiation generating means to generate radiation irradiated to the substance to be activated, and conductive metal layers 12, 22 interposed between the layers 11, 12 of the radiation generating means and the substance to be activated by being laminated on one surface side of the layers 11, 12 of the radiation generating means. At this time, the mass of the conductive metal layer 12 in the first substance activating means 10 and the mass of the conductive metal layer 22 in the second substance activating means 20 are different. Thereby, the first substance activating means 10 performs an action to activate the substance, and the second substance activating means 20 performs an action to amplify the substance activating effect.

Description

DETAILED DESCRIPTION OF THE INVENTION

[0001]

The present invention relates to a layer of a radiation generating means for generating radiation for irradiating a substance to be activated,
The present invention relates to a substance activating device including a conductive metal layer interposed between the radiation generating means and a substance to be activated.

[0002]

2. Description of the Related Art The applicant of the present application has developed a substance activating device which improves a fuel consumption rate and promotes purification of exhaust gas by, for example, being attached to an intake pipe or an exhaust pipe of an automobile engine. Filed an application and obtained a patent (Patent No. 30
No. 65590).

[0003] The structure of the substance activating device of the present invention will be outlined with reference to FIG. 18. The material activating device 1 uses a monazite powder that emits a minute dose of radiation by using a synthetic resin that does not absorb radiation. And has a layer 2 of radiation generating means formed in a strip shape. A conductive metal layer formed by laminating copper plates 3 and 4 is laminated on one surface side of layer 2 of the radiation generating means. On the other hand, a strip-shaped lead plate 5 and a copper plate 6 for blocking radiation are laminated on the other surface side of the layer 2 of the radiation generating means. The layer 2, the copper plates 3, 4, the lead plate 5, and the copper plate 6 of the radiation generating means are caulked together by rivets 7 so as to be relatively slidable, for example, on a polymer material intake duct or the like of an automobile engine. It can be easily wound.

When the substance activating device 1 is mounted on an air intake duct, a conductive metal layer is formed on the air intake duct by two copper plates 3 and 4, and a layer 2 of radiation generating means is provided outside the conductive metal layer. It is formed. Then, the radiation of about 100 mSv emitted from the layer 2 of the radiation generating means acts on the intake air flowing through the intake duct to ionize it. At the same time, the electric charge generated during the ionization is charged on the copper plates 3 and 4 to generate an electric field and a magnetic field, and the electric and magnetic fields thus generated act on the ionized intake air to activate the intake air. Greatly promote. When the air thus activated is supplied into the cylinder of an automobile engine (not shown), the air is sufficiently mixed with the fuel injected into the cylinder, so that the combustion efficiency of the fuel in the cylinder is greatly increased. Improvement of fuel consumption rate and purification of exhaust gas can be promoted.

[0005]

By the way, the applicant of the present application conducted research and development to further improve the substance activating device of the above-mentioned patented invention. It has been found that the case where the degree of activating the substance is increased and the case where it is not activated appear in various ways.

[0006] As a result of pursuing the structure of a substance activating device capable of surely increasing the degree of activating a substance, by using a pair of material activating devices having a certain structural difference in combination, It has been found that the intended purpose can be achieved.

That is, an object of the present invention is to further improve the substance activating device of the above-mentioned patented invention, and to provide a substance activating device capable of further improving the degree of activating a substance.

[0008]

According to a first aspect of the present invention, there is provided a substance activating device which combines a first substance activating means and a second substance activating means. Both are a layer of radiation generating means for generating radiation for irradiating the substance to be activated, and a layer laminated on one side of the layer of the radiation generating means and between the layer of the radiation generating means and the substance to be activated. And an intervening conductive metal layer. However, the mass of the conductive metal layer in the first material activating means is different from the mass of the conductive metal layer in the second material activating means.

A substance activating device according to a second aspect of the present invention for solving the above-mentioned problems is a combination of a first substance activating means and a second substance activating means. Both are a layer of radiation generating means for generating radiation for irradiating the substance to be activated, and a layer laminated on one side of the layer of the radiation generating means and between the layer of the radiation generating means and the substance to be activated. An intervening conductive metal layer and a conductive metal layer laminated on the other surface side of the radiation generating means layer are provided.
However, in the first substance activating means, the mass of the conductive metal layer laminated on one surface side of the radiation generating means layer is smaller than that of the conductive metal layer laminated on the other surface side of the radiation generating means layer. Greater than the mass of the layer. On the other hand, in the second substance activating means, the mass of the conductive metal layer laminated on one surface side of the radiation generating means layer was laminated on the other surface side of the radiation generating means layer. It is smaller than the mass of the conductive metal layer.

That is, the substance activating device according to the first and second aspects of the present invention further enhances the degree of activating a substance by combining a pair of substance activating means having different structures. is there. Further research is needed to fully explain the reason for this effect, but the charge generated when the material is ionized by irradiation is charged to the conductive metal layer. When an electric field and a magnetic field are generated by changing the structure of the first substance activating means and the second substance activating means so that the position and the mass at which the conductive metal layer is arranged are different, one of them activates the substance. It is considered that the activating effect (potential difference generating effect) is performed and the other function amplifies the degree of activation (potential difference amplifying operation).

In this case, in the material activating device according to the third aspect, the mass of the conductive metal layer on one side of the first material activating means and the conductive metal layer on the other side of the second material activating means are provided. By equalizing the mass of the layer, the substance activation effect of the first substance activation unit and the activation effect amplification effect of the second substance activation unit are balanced.

On the other hand, in the material activating device according to the fourth aspect, the second material activating means has a second conductive material on the other surface side of the first material activating one surface conductive metal layer. By reducing the mass of the conductive metal layer, the effect of amplifying the effect of the second substance activating means is weakened, and the substance activating effect and the second substance activating effect of the first substance activating means suppressed for some reason are suppressed. Balance the active effect amplifying action of the means.

According to a fifth aspect of the present invention, there is provided a substance activating apparatus in which a first substance activating means and a second substance activating means are combined. Both are a layer of radiation generating means for generating radiation for irradiating the substance to be activated, and a layer laminated on one side of the layer of the radiation generating means and between the layer of the radiation generating means and the substance to be activated. And an intervening conductive metal layer. At this time, each conductive metal layer is formed by a plurality of conductive metal plates stacked on each other. Then, the number of conductive metal plates forming the conductive metal layer of the first substance activating means is made different from the number of conductive metal plates forming the conductive metal layer of the second material activating means. .

According to a sixth aspect of the present invention, there is provided a substance activating apparatus in which a first substance activating means and a second substance activating means are combined. Both are a layer of radiation generating means for generating radiation for irradiating the substance to be activated, and a layer laminated on one side of the layer of the radiation generating means and between the layer of the radiation generating means and the substance to be activated. An intervening conductive metal layer and a conductive metal layer laminated on the other surface side of the radiation generating means layer are provided.
At this time, each conductive metal layer is formed by a plurality of conductive metal plates stacked on each other. However, in the first substance activating means, the number of conductive metal plates forming the one-side conductive metal layer is made larger than the number of conductive metal plates forming the other-surface conductive metal layer. On the other hand, in the second substance activating means, the number of conductive metal plates forming the other-side conductive metal layer is larger than the number of conductive metal plates forming the one-side conductive metal layer. I do.

That is, the substance activating device according to the fifth and sixth aspects of the present invention further enhances the degree of activating a substance by combining a pair of substance activating means having different structures. is there. At this time, the charge generated when the substance is ionized by irradiation with radiation is charged on the conductive metal layer to generate an electric field and a magnetic field, and the intensity is determined by the number of conductive metal plates forming the conductive metal layer. It varies in different ways. Therefore, by changing the structure of the first substance activating means and the second substance activating means to make the position where the conductive metal layer is disposed and the number of the conductive metal plates forming the conductive metal layer different, It is conceivable that one of them plays an action of activating the substance (potential difference generating action) and the other plays an action of amplifying the degree of activation (potential difference amplifying action).

At this time, in the material activating device according to the present invention, the number of conductive metal plates forming the conductive metal layer on one surface of the first material activating means and the second material activating means are provided. By equalizing the number of conductive metal plates forming the conductive metal layer on the other side of the means, the material activation effect by the first substance activation means and the activation effect amplifying action by the second substance activation means can be improved. Balance.

On the other hand, in the material activating device according to the present invention, the second material is more than the number of conductive metal plates forming the one-side conductive metal layer on the first material activation. By reducing the number of conductive metal plates forming the conductive metal layer on the other side of the activating means, the effect of amplifying the active effect by the second material activating means is weakened, and the first effect is suppressed for some reason. The substance activating effect of the substance activating means is balanced with the activation effect amplifying action of the second substance activating means.

Further, in the material activating device according to the ninth aspect, the number of conductive metal plates forming the conductive metal layer is an odd number. That is, the charge generated when the material is ionized by irradiation with radiation is charged on the conductive metal plate to generate an electric field and a magnetic field, but the direction differs for each conductive metal plate. At this time, it is considered that the intensity of the electric field and the magnetic field generated in the conductive metal plate can be further increased by setting the number of the conductive metal plates to an odd number.

The substance activating device according to the present invention is characterized in that the first substance activating means is mounted on the outer surface of an intake pipe for supplying combustion air to the internal combustion engine and the exhaust pipe for discharging exhaust gas of the internal combustion engine. It is preferable to mount the second substance activating means on the outer surface of the first member.

It is preferable that the first substance activating means and the second substance activating means are mounted side by side on an outer surface of an intake pipe for supplying combustion air to the internal combustion engine.

It is preferable that the first substance activating means and the second substance activating means are mounted side by side on the outer surface of an exhaust pipe for discharging exhaust gas of the internal combustion engine.

The first material activating means and the second material activating means are mounted on the inner peripheral surface of the wheel to which the tire is attached so as to face each other in the radial direction, so that the tire is filled. Activated air can be reduced to reduce tire wear and braking distance.

[0023]

BEST MODE FOR CARRYING OUT THE INVENTION Hereinafter, embodiments of a substance activating device according to the present invention will be described in detail with reference to FIGS. In the following description, the same portions will be denoted by the same reference characters and description thereof will be omitted.

Referring first to FIG. 1, a description will be given of a substance activating device 100 according to the present invention. The substance activating device 100 comprises a first substance activating means 10 and a second substance activating means 20. Is configured.

The first substance activating means 10 shown in FIG.
Activates exhaust gas G that is wound around the outer surface of an exhaust pipe E that supplies combustion air to an automobile engine and flows inside the exhaust pipe E, and generates radiation that irradiates the exhaust gas G. It has a layer 11 of generating means. The layer 11 of the radiation generating means is formed by molding a monazite powder that emits a minute dose of radiation into a strip shape using a synthetic resin that does not absorb radiation.

On one side of the layer 11 of the radiation generating means, that is, on the side of the exhaust pipe E, a first one-side conductive metal layer 12 formed by laminating 27 copper plates having a thickness of 0.1 mm. Are laminated. On the other hand, on the other surface side of the layer 11 of the radiation generating means, that is, on the side opposite to the exhaust pipe E, a second brass plate or aluminum plate having a thickness of 0.1 mm is formed by laminating two. One other-surface-side conductive metal layer 13 is laminated.

The second substance activating means 20 shown in FIG.
Activates an exhaust gas G wound around the outer surface of the exhaust pipe E of the automobile engine along the first substance activating means 10 and flowing inside the exhaust pipe E.
21 of radiation generating means for generating radiation for irradiating
have. The layer 21 of the radiation generating means is formed by molding a monazite powder that emits a very small dose of radiation into a strip shape using a synthetic resin that does not absorb radiation.

On one side of the layer 21 of the radiation generating means, that is, on the side of the exhaust pipe E, a second one-side conductive layer formed by laminating two brass plates or aluminum plates having a thickness of 0.1 mm. The conductive metal layer 22 is laminated. On the other hand, on the other surface of the layer 21 of the radiation generating means, that is, on the side opposite to the exhaust pipe E, a second other surface formed by stacking 27 copper plates having a thickness of 0.1 mm. The side conductive metal layer 33 is laminated. Note that the width W2 of the second material activating means 20 is smaller than the width W1 of the first material activating means 10 in order to match the entire mass of the conductive metal plate with that of the first material activating means 10. Is also slightly narrower.

That is, while the number of the conductive metal plates forming the first one-side conductive metal layer 12 in the first material activating means 10 is 27, the second material activating means 10 The number of the conductive metal plates forming the second one-side conductive metal layer 22 in 20 is two, and the two are different.

Further, in the first material activating means 10, the number of the conductive metal plates forming the first one-side conductive metal layer 12 is 27, while the number of the conductive metal plates forming the first one-side conductive metal layer 12 is 27. The number of conductive metal plates forming the side conductive metal layer 13 is two, and the number of the former is larger than that of the latter. On the other hand, in the second material activating means 20, while the number of the conductive metal plates forming the second one-side conductive metal layer 22 is two, the second other surface is used. The number of conductive metal plates forming the side conductive metal layer 23 is 27, and the former number is smaller than that of the latter.

Referring now to FIG. 2, a first modification 30 of the second substance activating means used in the substance activating apparatus according to the present invention.
Will be described.

The first of the second substance activating means shown in FIG.
The modification 30 activates fresh air A wrapped around the outer surface of the intake pipe I that supplies combustion air to the automobile engine and flows inside the intake pipe I, and irradiates the fresh air A with radiation. Layer 3 of radiation generating means for generating radiation
One. The layer 31 of the radiation generating means is formed by molding a monazite powder that emits a small amount of radiation into a strip shape using a synthetic resin that does not absorb radiation.

On one side of the layer 31 of the radiation generating means, that is, on the side of the intake pipe I, a second one-side conductive layer formed by laminating two brass plates or aluminum plates having a thickness of 0.1 mm. The conductive metal layer 32 is laminated. On the other hand, on the other surface side of the layer 31 of the radiation generating means, that is, on the side opposite to the intake pipe I, a second other surface formed by stacking 27 copper plates having a thickness of 0.1 mm. The side conductive metal layer 33 is laminated. Note that the width W3 of the first modification 30 of the second substance activating means is １ ／ of the width W1 of the first substance activating means 10 shown in FIG. The mass of the conductive metal layer in (1) is made significantly smaller than the mass of the conductive metal layer of the first substance activating means 10.

Referring now to FIG. 3, a second modification 40 of the second substance activating means used in the substance activating apparatus according to the present invention.
Will be described.

The second substance activating means shown in FIG.
Modification 40 activates fresh air A that is wound around the outer surface of the intake pipe I that supplies combustion air to the automobile engine and flows inside the intake pipe I. Radiation that irradiates the fresh air A Layer 4 for generating radiation
One. The layer 41 of the radiation generating means is formed by molding a monazite powder that emits a very small amount of radiation into a strip using a synthetic resin that does not absorb radiation.

On one surface side of the layer 41 of the radiation generating means, that is, on the side of the intake pipe I, a second one-side conductive film formed by laminating two brass plates or aluminum plates having a thickness of 0.1 mm. The conductive metal layer 32 is laminated. On the other hand, on the other surface side of the layer 31 of the radiation generating means, that is, on the side opposite to the intake pipe I, a second other surface formed by laminating nine copper plates having a thickness of 0.1 mm. The side conductive metal layer 43 is laminated. The width W4 of the second modification 40 of the second substance activating means is half the width W1 of the first substance activating means 10 shown in FIG. Thereby, the mass of the conductive metal layer in the second modification 40 is smaller than the mass of the conductive metal layer in the first modification 30.

Next, referring to FIG. 4 to FIG.
A description will be given of a mounting example of each substance activating means 10, 20, 30, 40 in a 00cc naturally aspirated gasoline engine vehicle, and a fuel efficiency improvement rate in each mounting example.

In the mounting example shown in FIG.
Only the first substance activating means 10 is mounted. At this time, compared to the case where no substance activating means is attached,
20 when driving at a speed of 100 kilometers per hour
%, 1 when driving at a speed of 120 kilometers per hour
0% improvement in fuel economy was observed. However, the first in the intake pipe I
When only the substance activating means 10 is mounted, the influence of the exhaust pressure of the exhaust system when traveling at a higher speed is large,
The fuel efficiency improvement rate at a speed of 120 km / h has dropped to 10%.

In the mounting example shown in FIG.
Only the first substance activating means 10 is mounted. At this time, compared to the case where no substance activating means is attached,
0 when driving at a speed of 100 kilometers per hour
At a speed of 120 km / h, a 5% improvement in fuel economy was observed. However, the first exhaust pipe E
The effect of the exhaust pressure of the exhaust system when traveling at a higher speed is improved by installing only the material activating means 10 of the above, but the fuel efficiency improvement rates are 0% and 5%, respectively. Is low.

Therefore, in the mounting example shown in FIG. 6, the first substance activating means 10 is mounted on each of the intake pipe I and the exhaust pipe E. At this time, compared to the case where the substance activating means was not installed at all, the fuel economy was improved by 10% when running at a speed of 100 km / h and by 20% when running at a speed of 120 km / h.

That is, since the first substance activating means 10 is mounted on both the intake pipe I and the exhaust pipe E, the fuel consumption improvement rates are improved as compared with the case of the mounting example shown in FIG. However, when compared with the mounting example shown in FIG. 4, the fuel efficiency improvement rate when traveling at a speed of 100 km / h was only 10%, and the increase in incomplete combustion gas was measured by a measuring instrument.

This is because, when the valve of the engine overlaps (when the intake valve and the exhaust valve are simultaneously opened to improve the intake / exhaust efficiency), the substance activation effect of the first substance activation means 10 causes the intake pipe I And the potential generated in the exhaust gas G inside the exhaust pipe E due to the substance activation effect of the first substance activating means 10, there is no difference. It is considered that the combustion gas remained in the cylinder in the low rotation range where the inertia force of the gas was small, and incomplete combustion occurred due to lack of oxygen.

On the other hand, in the mounting example shown in FIG. 7, the first substance activating means 10 is mounted on the intake pipe I, and the first substance activating means 10 and the second substance activating means are mounted on the exhaust pipe E.
Are attached in combination. At this time, compared to the case where the substance activating means is not installed at all, the fuel economy is improved by 40% at a speed of 100 km / h and by 35% at a speed of 120 km / h. A balanced fuel economy improvement was recognized.

The first material activating means 10 and the second material activating means 20 having the same mass of the conductive metal plate as the first material activating means 10 are mounted on the exhaust pipe E in combination. As a result, a difference occurs between the potential generated in the fresh air A inside the intake pipe I due to the substance activation effect and the potential generated in the exhaust gas G inside the exhaust pipe E due to the substance activation effect, and the valve overlap occurs. It is considered that a smooth flow from the intake pipe I to the exhaust pipe E occurred in each stroke including the time.

On the other hand, in the mounting example shown in FIG. 8, a part of the intake air is directly supplied to the engine by a bypass line that branches off from the middle of the intake pipe I and extends to the intake manifold in the cylinder block. In the intake / exhaust system having such a structure, even if the first substance activating means 10 and the second substance activating means 20 are mounted in the same manner as in the mounting example of FIG. 7, the speed is 100 km / h. Only a 20% improvement in fuel economy can be seen when driving at a speed of 20 km / h and at a speed of 120 km / h. This means that there is an equilibrium between fresh air that has been activated through the first substance activating means 10 attached to the intake pipe I and fresh air that has not been activated through the bypass line. Works, and the activation level of fresh air supplied to the engine is reduced.

Therefore, in the mounting example shown in FIG.
The first substance activating means 1 is different from the mounting example shown in FIG.
The first modification 30 of the second substance activating means is mounted downstream of the zero. As a result, a fuel efficiency improvement of 30% was observed when the vehicle was driven at a speed of 120 km / h, compared with a case where the substance activating means was not installed at all.
The fuel efficiency improvement rate when driving at a speed of 0 kilometers is 2
It remains at 0%.

This is because the first modification 30 of the second substance activating means is attached to the first substance activating means.
Although the equilibrium between fresh air that has been activated by passing through the substance activating means 10 and fresh air that has not been activated by passing through the bypass line has been suppressed,
Since the mass of the conductive metal plate in the first modification 30 of the substance activating means is large and the activation level of fresh air passing through the first substance activating means 10 is reduced, the intake pipe I is activated by the substance activating effect. Exhaust gas G inside the exhaust pipe E due to the potential generated in the fresh air A inside the
This is probably because the balance between the potential and the potential generated at the time has been lost.

Therefore, in the mounting example shown in FIG.
The first substance activating means 1 is different from the mounting example shown in FIG.
A second modification 40 of the second substance activating means is mounted downstream of the zero. As a result, the fuel efficiency improvement rate when traveling at a speed of 100 km / h is increased to 40% and the fuel efficiency improvement rate when traveling at a speed of 120 km / h compared to the case where no substance activating means is installed. Increased to 30%. That is, when the bypass line exists in the intake pipe I, the mass of the conductive metal plate in the second material activating means attached to the intake pipe I is finely adjusted to improve the fuel efficiency improvement rate. Can be.

Next, referring to FIG. 11 to FIG.
A description will be given of a mounting example of each substance activating means 10, 20, 30, 40 in a 500 cc gasoline engine vehicle with a turbocharger, and a fuel efficiency improvement rate in each mounting example.

A turbocharger is mounted on the intake system of the engine shown in FIG. 11, and the boosted intake air is cooled by an intercooler before being supplied to the engine. In addition, a waste gate valve (not shown) is provided upstream of the turbocharger, and when the boost level of the intake exceeds a predetermined value, a part of the intake flows directly downstream of the turbocharger. Further, a bypass line branched from the intake pipe I is provided upstream of the turbocharger, and a part of the intake air before being boosted by the turbocharger is directly supplied to an intake manifold provided in a cylinder block.

In the mounting example shown in FIG. 11, the first substance activating means 10 is mounted on the most upstream side of the intake pipe I, and the first substance activating means 10 and the second
Is mounted in combination with the substance activating means 20.
At this time, a 30% improvement in fuel efficiency was obtained when the vehicle was driven at a speed of 100 km / h, but a 20% improvement in fuel efficiency was obtained when the vehicle was driven at a speed of 120 km / h, as compared with the case where no substance activating means was installed. %. This is because the first substance activating means 10 is mounted at the most upstream position of the intake pipe I, so that the activation effect of the intake by the first substance activating means 10 is impaired when passing through the intercooler, and the pressure of the turbocharger is increased. This is probably because the fuel efficiency improvement effect decreased in the high speed range where the level increased.

Similarly, in the case of a diesel engine provided with an EGR bypass line, the intake pipe I
When the first substance activating means 10 is mounted at the most upstream of
Since the activated intake air and the exhaust gas recirculated through the EGR bypass line interfere with each other, the activation level of the intake air is reduced and the fuel consumption rate is not improved.

Therefore, in the mounting example shown in FIG. 12, the first substance activating means 10 is mounted at the most downstream of the intake pipe I, that is, immediately upstream of the engine, and the exhaust pipe E
Is equipped with a combination of a first substance activating means 10 and a second substance activating means 20. At this time,
1 hour per hour compared to the case where no substance activating means is attached
A 50% improvement in fuel economy was achieved when driving at a speed of 00 kilometers, and a 40% improvement in fuel economy when traveling at a speed of 120 kilometers per hour.

The fuel efficiency improvement rate at a speed of 120 km / h is lower than that at a speed of 100 km / h because the first material activating means 10 activates the fuel efficiency. It appears that some of the intake air is not being supplied to the engine via the bypass line. Similarly, even in the case of a diesel engine provided with an EGR bypass line, the activated intake air interferes with the exhaust gas recirculated through the EGR bypass line, so that the activation level of the intake air decreases and the fuel level decreases. No significant improvement in consumption rate was observed.

Therefore, in the mounting example shown in FIG.
The first material activating means 10 and the second
And a first modification 30 of the material activating means of the first embodiment, and the exhaust pipe E has the first material activating means 1 attached thereto.
0 and the second substance activating means 20 are mounted in combination. As a result, the fuel efficiency improvement rate at a speed of 120 km / h was increased to 50% as compared with a case where no substance activating means was attached, but the fuel efficiency improvement rate at a speed of 100 km / h was increased. The rate has dropped to 45%. This is probably because the mass of the conductive metal plate in the first modification 30 of the second substance activating means attached to the intake pipe I is large.

Further, in the mounting example shown in FIG.
The first material activating means 10 and the second modification 40 of the second material activating means in which the mass of the conductive metal plate is reduced are mounted in the most downstream of the intake pipe I in combination with the exhaust pipe E. Was mounted in combination with the first substance activating means 10 and the second substance activating means 20. As a result, the fuel efficiency improvement rate when traveling at a speed of 100 km / h is increased to 55% and the fuel efficiency improvement rate when traveling at a speed of 120 km / h as compared to a case where the substance activating means is not installed at all. Was able to maintain 50 percent.

As is clear from the above description, the flow of fresh air or exhaust gas activated by the substance activating means is affected by various mechanisms provided in the engine. Therefore, each substance activating means 1 manufactured according to the present invention
If 0, 20, 30, and 40 are combined and installed in the intake system and exhaust system of the engine, a desired potential difference is generated between the activated intake air and the activated exhaust gas. , The fuel consumption rate of the automobile engine can be remarkably improved. The running test also confirmed that there was a slight difference in the improvement of the fuel consumption rate depending on the difference in the shape of the intake pipe and the exhaust pipe and the operation of each mechanism attached to the intake and exhaust systems.

As described above, each embodiment of the substance activating device according to the present invention has been described in detail. However, it is needless to say that the present invention is not limited to each embodiment described above, and various modifications are possible. . For example, in each of the above-described embodiments, the material activation device according to the present invention is used to improve the fuel consumption rate of an automobile engine, but the material activation device according to the present invention is used to improve tire wear. You can also.

That is, as shown in FIG. 16, first and second substance activating means 50 and 60 are mounted on the inner peripheral surface of the wheel on which the tire is mounted so as to face each other in the radial direction. .

As shown in FIG. 16, the first substance activating means 50 has a radiation generating means layer 51 for irradiating the air filled in the tire with radiation to activate the air. The layer 51 of the radiation generating means is formed by molding a monazite powder that emits a very small amount of radiation into a strip shape using a synthetic resin that does not absorb radiation. On the wheel-side surface of the layer 51 of the radiation generating means, a first one-side conductive metal layer 52 made of one aluminum plate having a thickness of 0.1 mm is laminated. On the other surface of the layer 51 of the radiation generating means, that is, on the surface opposite to the wheel, a first other surface formed by laminating two aluminum plates having a thickness of 0.1 mm. Conductive metal layer 53
Are laminated.

As shown in FIG. 17, the second substance activating means 60 has a radiation generating means layer 61 for irradiating the air filled in the tire with radiation to activate the air. The layer 61 of the radiation generating means is formed by molding a monazite powder that emits a very small dose of radiation into a strip shape using a synthetic resin that does not absorb radiation. On the wheel side surface of the radiation generating means layer 61, a second one-side conductive metal layer 62 formed by laminating two aluminum plates having a thickness of 0.1 mm is laminated.
On the other surface side of the radiation generating layer 61, that is, on the surface opposite to the wheel, a second other-surface-side conductive metal layer 63 made of one aluminum plate having a thickness of 0.1 mm is provided.
Are laminated.

When the first and second substance activating means 50 and 60 having such a structure are mounted on the wheel, the air filled in the tire is activated and an air flow circulating in the tire is generated. Or tire wear is about 30% on average
As a result, it was confirmed that the braking distance in a vehicle equipped with an ABS (anti-skid brake system) was reduced by about 10% on average.

[0063]

As is apparent from the above description, the substance activating device of the present invention activates a substance by combining the first and second substance activating means. By changing the structure of the substance activating means and the second substance activating means so that the position and the mass at which the conductive metal layer is arranged are different, one acts to activate the substance and the other activates the substance. It can be configured to act to amplify the degree. Therefore, the substance activating device of the present invention has a stronger effect of activating the substance. For example, by mounting the substance activating apparatus on an automobile engine, the fuel consumption rate is remarkably improved and the exhaust gas is further purified. Can be changed.

[Brief description of the drawings]

FIG. 1 is a longitudinal sectional view showing a material activating device according to an embodiment of the present invention.

FIG. 2 is a longitudinal sectional view showing a state in which a first modification of the second material activating means shown in FIG. 1 is wound around an exhaust pipe of an engine.

FIG. 3 is a longitudinal sectional view showing a state in which a second modification of the second material activating means shown in FIG. 2 is wound around an exhaust pipe of an engine.

FIG. 4 is a diagram showing a state in which a substance activating means is attached to an intake / exhaust system of an automobile engine and an effect of improving fuel efficiency.

FIG. 5 is a diagram showing a state in which a substance activating means is mounted on an intake / exhaust system of an automobile engine and a fuel efficiency improvement effect in correspondence with each other.

FIG. 6 is a diagram showing a state in which a substance activating means is attached to an intake / exhaust system of an automobile engine and a fuel consumption improving effect in correspondence with each other.

FIG. 7 is a diagram showing a state in which a substance activating means is attached to an intake / exhaust system of an automobile engine and a fuel efficiency improvement effect in correspondence with each other.

FIG. 8 is a diagram showing a state in which a substance activating means is mounted on an intake / exhaust system of an automobile engine and a fuel efficiency improvement effect in correspondence with each other.

FIG. 9 is a diagram showing a state in which the substance activating means is attached to an intake / exhaust system of an automobile engine and a fuel efficiency improvement effect in correspondence with each other.

FIG. 10 is a diagram showing a state in which the substance activating means is attached to an intake / exhaust system of an automobile engine and a fuel efficiency improvement effect in correspondence with each other.

FIG. 11 is a diagram showing a state in which a substance activating means is attached to an intake / exhaust system of an automobile engine and a fuel efficiency improving effect in correspondence with each other.

FIG. 12 is a diagram showing a state in which the substance activating means is attached to an intake / exhaust system of an automobile engine and a fuel efficiency improving effect in association with each other.

FIG. 13 is a diagram showing a state in which a substance activating means is mounted on an intake / exhaust system of an automobile engine and a fuel efficiency improvement effect in correspondence with each other.

FIG. 14 is a diagram showing a state in which the substance activating means is attached to an intake / exhaust system of an automobile engine and a fuel efficiency improvement effect in correspondence with each other.

FIG. 15 is a view schematically showing a state where the substance activating device according to the present invention is mounted on a wheel of an automobile.

FIG. 16 is a sectional view showing a first substance activating means shown in FIG. 15;

FIG. 17 is a sectional view showing a second substance activating means shown in FIG. 15;

FIG. 18 is a perspective view showing a substance activating device according to Japanese Patent No. 3065590.

[Explanation of symbols]

 1 A substance activating device according to Japanese Patent No. 3065590. Reference Signs List 2 radiation generating means layer 3, 4 copper plate 5 lead plate 6 copper plate 7 rivet 10 first material activating means 11 radiation generating means layer 12 first one-side conductive metal layer 13 first other-side conductive metal layer Reference Signs List 20 second substance activating means 21 layer of radiation generating means 22 second one-side conductive metal layer 23 second second-side conductive metal layer 30 first modification of second substance activating means 31 radiation generating means Layer 32 second one-side conductive metal layer 33 second other-side conductive metal layer 40 second modification of second material activating means 41 radiation generating means layer 42 second one-side conductive metal layer 43 Second other-surface-side conductive metal layer 50 First material activating means 51 Radiation generating means layer 52 First one-surface-side conductive metal layer 53 First other-surface-side conductive metal layer 60 Second material activating means 61 Layer of radiation generating means 62 Second surface side guide Electrometal layer 63 Second second-surface-side conductive metal layer 100 Substance activating device according to one embodiment of the present invention

Claims (13)

[Claims] 1. A layer of a first radiation generating means for generating radiation for irradiating a substance to be activated, and said substance and said first radiation laminated on one side of a layer of said first radiation generating means. A first substance activating means having a first conductive metal layer interposed between the layer of the generating means, a layer of a second radiation generating means for generating radiation for irradiating the substance, and A second material activation means having a second conductive metal layer laminated on one surface side of the second radiation generation means layer and interposed between the substance and the second radiation generation means layer; Wherein the mass of the first conductive metal layer is different from the mass of the second conductive metal layer. 2. A layer of first radiation generating means for generating radiation for irradiating a substance to be activated, and said substance and said first radiation laminated on one side of said layer of said first radiation generating means. A first one-surface-side conductive metal layer interposed between the first one-surface-side conductive metal layer and the first one-surface-side conductive metal layer laminated on the other surface of the first radiation-generating device layer; A first other-surface-side conductive metal layer having a mass smaller than the mass,
A first substance activating means having: a layer of a second radiation generating means for generating radiation for irradiating the substance; and a layer of the second radiation generating means, A second one-side conductive metal layer interposed between the second radiation generating means and the second one-side conductive metal layer laminated on the other surface of the second radiation generating means. And a second material activating means having a second other-surface-side conductive metal layer having a mass larger than the mass of the conductive metal layer. 3. The mass of the first one-side conductive metal layer,
The substance activating device according to claim 2, wherein the mass of the second other-surface-side conductive metal layer is equal. 4. The mass of the first one-side conductive metal layer is as follows:
3. The substance activating device according to claim 2, wherein the mass is larger than the mass of the second other-surface-side conductive metal layer. 4. 5. A layer of first radiation generating means for generating radiation for irradiating a substance to be activated, and said substance and said first radiation laminated on one surface side of said first radiation generating means layer A first substance activating means having a first conductive metal layer formed from a plurality of conductive metal plates stacked on each other and interposed between the layer of the generating means, and irradiating the substance. A layer of second radiation generating means for generating radiation, and a layer of the second radiation generating means interposed between the substance and the layer of the second radiation generating means, which are laminated on one surface side of the layer of the second radiation generating means, A second material activation means having a second conductive metal layer formed from a plurality of stacked conductive metal plates, wherein the conductive material forming the first conductive metal layer is provided. Forming the number of metal plates and the second conductive metal layer Material activating device, characterized in that was different from the number of Kishirube conductive metal plate. 6. A layer of a first radiation generating means for generating radiation for irradiating a substance to be activated, and said substance and said first radiation laminated on one side of a layer of said first radiation generating means. A first one-side conductive metal layer formed from a plurality of stacked conductive metal plates interposed between the layer of the generating means and the other surface of the first radiation generating layer A first other-surface-side conductive metal layer formed by laminating a smaller number of metal plates than the number of conductive metal plates forming the first one-surface-side conductive metal layer. A first substance activating means having a layer of a second radiation generating means for generating radiation for irradiating the substance, and a layer of the second radiation generating means, And two layers interposed between the two radiation generating means layers. A second one-side conductive metal layer formed from a plurality of laminated conductive metal plates, and the second one-side conductive layer laminated on the other surface of the second radiation generating means layer A second material activating means having a second other-surface-side conductive metal layer formed by laminating a smaller number of metal plates than the number of conductive metal plates forming the conductive metal layer. A substance activating device, characterized in that: 7. The number of conductive metal plates forming the first one-side conductive metal layer is equal to the number of conductive metal plates forming the second other-surface conductive metal layer. The substance activating device according to claim 5, wherein: 8. The method according to claim 1, wherein the number of conductive metal plates forming the first one-side conductive metal layer is larger than the number of conductive metal plates forming the second other-surface conductive metal layer. The substance activating device according to claim 5, characterized in that: 9. The substance activating device according to claim 5, wherein the number of the conductive metal plates is an odd number. 10. The first substance activating means is mounted on an outer surface of one of an intake pipe for supplying combustion air to an internal combustion engine and an exhaust pipe for discharging exhaust gas of the internal combustion engine, and 10. The substance activating device according to claim 1, wherein the second substance activating means is mounted on the other outer surface of one of the intake pipe and the exhaust pipe. 11. The apparatus according to claim 1, wherein said first substance activating means and said second substance activating means are mounted side by side on an outer surface of an intake pipe for supplying combustion air to an internal combustion engine. 10. The substance activation device according to any one of 1 to 9. 12. The apparatus according to claim 1, wherein said first substance activating means and said second substance activating means are mounted side by side on an outer surface of an exhaust pipe for discharging exhaust gas of an internal combustion engine. 10. The substance activating device according to any one of claims 1 to 9. 13. The apparatus according to claim 1, wherein said first substance activating means and said second substance activating means are mounted on a wheel on which a tire is mounted so as to face each other in a radial direction. 10. The substance activating device according to any one of 9 above.