JP4331040B2 - Noise reduction battery - Google Patents

Description

The present invention relates to a noise reduction battery in which a spiral-formed conductor having grooves and protrusions formed on the outer peripheral surface of a rod-shaped conductor is provided in order to obtain an alternating current waveform with as little noise as possible.
In particular, the present invention relates to a noise-reducing battery in which an electrolyte paint is applied to the surface of a spiral forming conductor to improve the noise reduction effect.

Conventionally, alkaline batteries, manganese batteries, and the like have been used as power sources in home appliances, electronic devices, and the like.
When a current is supplied from a battery, a magnetic field is generated. However, it is known that the magnetic field has a good effect on the human body in a sense.
For this reason, health care devices and medical devices using this have been developed.

For example, there is known a method of removing stiffness by sticking a bandage having a small permanent magnet on a human skin surface.
In addition, medical devices that effectively increase blood flow (containing iron) by placing a human body in a magnetic field are also known.

In particular, health devices and medical devices that use alternating current waveforms are favorably used because they can freely adjust the output of the magnetic field by controlling energization.
By the way, for example, noise components from outside or inside the home electric appliance are superimposed on the commercial AC wire drawn into the room or the like, and noise is generated in the AC waveform.
This is why, for example, radio and television audio and video are disturbed.

Thus, the generation of noise in the AC waveform is inevitable.
For this reason, it is not always possible to obtain a stable magnetic field using a health device or a medical device, which is a cause of weakening its effective effect.
Accordingly, a so-called spiral-formed conductor has been developed that can effectively remove noise components during the application of alternating current and can generate a stable magnetic field (for example, Patent Document 1 is an application for which the present application has been filed). US patent by humans).

This spiral forming conductor is formed by forming a spiral groove 100a and a protrusion 100b on a round bar-shaped conductor as shown in FIGS. 5 (A) and 5 (B).
The angle θ (so-called lead angle) of the groove 100a or the protrusion 100b of the spiral-forming conductors 100A and 100B can be arbitrarily set. For example, an angle called a golden angle, that is, about 52.5 degrees. It is preferable to make it.
Incidentally, it is empirically known that the golden angle is an extremely important value as the optimum value of the fact phenomenon in nature.

According to Patent Document 1, a confirmation test of the noise removal effect was performed using an apparatus as shown in FIG.
Describing this content schematically, in the test apparatus 101, two spiral forming conductors 100A each having a spiral groove 100a having a lead angle θ of 52.5 degrees are used.
The helical conductor 100A has a length L of 250 mm and a diameter of 6 mm.
Then, commercial alternating current (100 V) was applied to one end of the spiral forming conductor 100A, and a dryer 102 was connected to the output side as a load.

The dryer 102 was manufactured by IZUMI, rated 100 V, 1200 W, 50-60 Hz.
Then, an oscilloscope 103 (SS-5702 DC to 20M1 Hz standard) was connected to the AC input at one end and the AC output at the other end of the spiral forming conductor 100A, and the waveform was observed.
The results are shown in Figure 7.

7 (A) is a waveform of the AC input, FIG. 7 (B) is a waveform of the AC output.
In the former waveform, noise was generated instantaneously in some places, but it was confirmed that the noise was effectively removed in the latter.
Therefore, it has been found that by incorporating this spiral-forming conductor 100A into an electric circuit, noise from home appliances, electronic devices, etc. can be effectively reduced.

US Pat. No. 6,541,708 B2

Theoretically, in order to obtain the noise reduction effect as described above for commercially available home appliances and electronic devices, it is theoretically necessary to incorporate a device with a spiral conductor into such home appliances and electronic devices. good.
However, incorporation is often difficult due to physical space limitations.

The present invention has been made on the basis of such background technology, and has been made to overcome the above-described problems of the background technology.
That is, it is an object to easily obtain a noise reduction effect for at least home electric appliances and electronic devices that use batteries as a drive source.

  Thus, as a result of earnest research on the background of such problems, the present inventor can solve the above problems by incorporating a spiral forming conductor as a constituent element into a battery. The present invention has been completed based on the finding and this finding.

That is, the present invention is applied to (1) the one-side electrode formed of a spiral-formed conductor in which a spiral groove or protrusion is formed on the outer peripheral surface of the rod-shaped conductor, and the outer peripheral surface of the spiral-formed conductor. A noise-reducing battery comprising: an electrolyte paint; and an outer electrode that covers an outer peripheral surface of the spiral-formed conductor while being in contact with the electrolyte paint and is formed of a material different from the spiral-formed conductor, Between the electrode and the other side electrode, a first paper body through which the electrolyte paint permeates is provided so as to wrap the electrolyte paint, and the other side electrode is provided to improve the contact property with the electrolyte paint. It is formed of a metal sheet, and a second paper body is wound around the outer peripheral surface of the metal sheet as an insulator, and a rigid protective cylinder is provided so as to cover the outer peripheral surface of the second paper body In the electrolyte paint, tourmaline is 30 ~ 0% by weight, 30-50% by weight of precious jewels, 5-10% by weight of titanium, 5-10% by weight of lapis, and baked powder containing 10-30% by weight It exists in the noise reduction battery .

The present invention also provides (2) the noise-reducing battery according to (1) , wherein the electrolyte coating contains 0.01 to 0.08% by weight of an electroconductive polymer and a polymer electrolyte. Exist.

  In addition, as long as the objective of this invention is met, the structure which combined the said claim suitably is also employable.

According to the present invention, the one-side electrode in which spiral grooves or protrusions are formed on the outer peripheral surface of the rod-shaped conductor, the electrolyte paint applied to the outer peripheral surface of the spiral-formed conductor, and the electrolyte paint are in contact with each other. However, since it has the other side electrode which covers the outer peripheral surface of the spirally formed conductor and is formed of a material different from that of the spirally formed conductor, a current flows when the one side electrode and the other side electrode are connected.
That is, a battery is formed, but since a spiral groove or protrusion or a double spiral groove is formed on the outer peripheral surface of the rod-shaped one side electrode, the contact area with the electrolyte coating is widened. Contributes to battery power-up.
In addition, since a spiral groove or protrusion or a double spiral groove is formed on the outer peripheral surface of the rod-shaped one-side electrode, noise is reduced.

Hereinafter, the best mode for carrying out the present invention will be described with reference to the drawings.
FIG. 1 shows a noise reduction battery according to an embodiment of the present invention, and FIG. 2 is a cross-sectional view taken along the line AA in FIG.
The noise reduction battery 1 has an outer shell, for example, a plastic protective cylinder 2.
The size of the protective cylinder 2 is preferably the same size as, for example, a commercially available dry battery, and various sizes such as a single type to a single type are preferable.
The material of the protective cylinder 2 is mainly for protection, and for example, rubber or metal material may be used. Moreover, since the protective cylinder 2 is provided, even if the noise reduction battery 1 is accidentally dropped on the floor, the noise reduction battery 1 will not be deformed and will not break down, and the internal protection effect will be obtained. is there.

Further, at the center of the noise reduction battery 1, a copper spiral forming conductor 3A (role of a current bar) which is one side electrode is provided.
As shown in FIG. 3A, a spiral groove 3a is formed on the outer peripheral surface of the spiral forming conductor 3A.
Note that a spirally formed conductor 3B having protrusions 3b as shown in FIG. 3B may be used.
Further, it is more preferable to use a spiral-forming conductor 3C in which a double spiral groove 3c (see FIG. 3C) in which the spiral grooves 3a and protrusions 3b intersect is formed.
The angle θ (so-called lead angle) of the grooves 3a or protrusions 3b of the spiral forming conductors 3A and 3B or the double spiral groove 3c can be arbitrarily set (here, 52.5 degrees). ).

The electrolyte coating 4 is applied to the outer peripheral surface of the spiral-forming conductor 3A.
The electrolyte coating 4 can be obtained by mixing an electron conductive polymer into the polymer electrolyte. Specifically, the electrolyte coating 4 can be obtained by mixing 0.01 to 0.08% by weight of polyphenylene vinylene, polyaniline or the like which is an electron conductive polymer into a polyurethane resin coating which is a polymer electrolyte. preferable.
This mixing is performed by, for example, kneading in hot water at 80 ° C., drying, and dissolving in a polyurethane resin paint in which a polyurethane resin is dissolved in an organic solvent.

The amount is less than 0.01 wt% of electron conductive polymer, the number of generable electrons is reduced,
Battery power is reduced and battery life is shortened.
On the other hand, if it is more than 0.08% by weight, the required life of the battery can be sufficiently satisfied.
The electrolyte paint 4 contains 10 to 30% by weight of special special powder from the viewpoint of battery efficiency.
It is mixed in the ratio of.

Here, the special powder is composed of 30-50% by weight of tourmaline, 30-50% by weight of precious jewels (so-called “quartz porphyry”), 5-10% by weight of titanium, and 5-10% of lapis. It is preferable to obtain a material containing 5% by weight by calcination.
Tourmaline (also known as “tourmaline”) is a silicate mineral that generates far-infrared rays and negative ions.

Precious jewels have far-infrared emission and negative ion generation greater than tourmaline.
Lapis is a material composed mainly of laslite, sodalite, and nozean, and its chemical formula is represented by Na3Ca (Al3Si3O12) S.

Now, since the electrolyte coating 4 is a viscous material, in order to obtain film thickness stability on the outer peripheral surface of the spirally formed conductor 3A, the Japanese paper 5 as the first paper body is applied on the applied electrolyte coating 4. It is rolled up.
Therefore, the electrolyte paint 4 penetrates into the Japanese paper 5 and the electrolyte paint 4 is stored and held.

Japanese paper is also preferred from the viewpoint that water and oil are more permeable than western paper.
After wrapping the electrolyte coating 4 with the Japanese paper 5, an aluminum sheet 6 serving as the other electrode is wound around the surface of the Japanese paper 5.
Thus, when the other electrode is thin, the contact property with the electrolyte coating 4 is improved, and the efficiency of the battery is increased.
Since aluminum has a relatively large difference in ionization tendency with respect to copper, the battery performance is also excellent.

As the other side electrode, other metal material may be used instead of the aluminum sheet 6.
In short, it is sufficient that the conductor is made of a material different from that of the spiral-forming conductor 3A. Desirably, the larger the difference in ionization tendency between the two electrodes, the better. The metal having a large ionization tendency becomes the negative electrode and the small electrode becomes the positive electrode. Next, a Japanese paper 7 as a second paper body is wound on the surface of the aluminum sheet 6.
This Japanese paper 7 is interposed between the aluminum sheet 6 and the protective cylinder 2 and plays a role as an insulating or protective material.

Synthetic resin circular lids 8 are usually attached to both ends of the noise reduction battery 1 and the protective cylinder 2 is closed.
The spiral forming conductor 3A protrudes from the positive electrode side circular lid 8, and the conductive wire 6A connected to the aluminum sheet 6 is exposed on the negative electrode side circular lid 8 on the opposite side.
In addition, what is made to conduct to the aluminum sheet 6 is not limited to the conducting wire 6A.

Next, the noise reduction effect was confirmed with the apparatus using FIG. 4 similar to the apparatus described in Patent Document 1 using the above-described noise reduction battery 1 (having the spirally formed conductor 3A) as a power source.
As shown in the figure, a DC / AC converter 9 is connected to the noise reduction battery 1, and the DC / AD converter 9 supplies an alternating current to the step motor 10 to drive it.
The amplitude waveform of the alternating current at this time was measured with an oscilloscope 11.
Further, instead of the noise reduction battery 1, a normal AA battery was used to drive the step motor 10 in the same manner, and the amplitude waveform of the alternating current at this time was measured with the oscilloscope 11.

As a result, it was found that when the noise reduction battery 1 is used, the noise waveform is reduced and the noise amplitude is also reduced.
That is, the noise component is more effectively removed in the waveform using the noise reduction battery 1 than in the waveform using a normal AA battery.

In the noise reduction battery 1 of the above-described embodiment, the spiral forming conductor 3A, the electrolyte coating 4 applied to the outer peripheral surface of the spiral forming conductor 3A, and the spiral forming conductor 3A while being in contact with the electrolyte coating 4 are used. Since the aluminum sheet 6 is formed of a material different from that of the spiral forming conductor 3A, a current flows when the spiral forming conductor 3A and the aluminum sheet 6 are connected.
And since the helical groove | channel 3a is formed in the outer peripheral surface of 3 A of spiral forming conductors, a contact area with the electrolyte coating material 4 becomes large, and the power-up of a battery can be aimed at.

In addition, as supported by the above-described experimental results, power is supplied using the one having the spiral groove 3a, so that noise when an alternating current is passed through a home appliance or electronic device is reduced. be able to.
Incidentally, a similar experiment was conducted for a noise reduction battery (having the spiral-formed conductor 3C), but a better noise reduction effect was confirmed.
Further, when at least one titanium ring is attached around the spiral forming conductor 3A, an extremely excellent noise reduction effect is obtained.

Although the present invention has been described above, the present invention is not limited to the above-described embodiment, and various other modifications can be made without departing from the essence thereof. .
For example, in the above-described embodiment, an example in which an aluminum plate is roll-formed as the protective cylinder 2 has been described. However, a synthetic resin pipe may be used instead of a metal plate.
In short, any battery capable of protecting the noise reducing battery 1 may be used.

In the above-described embodiment, the left lead is shown as the spiral forming conductors 3A and 3B. However, the right lead may be used, and both the right lead and the left lead may be formed.
Further, when both the right lead and the left lead are formed, one may be a protrusion and the other may be a groove. Furthermore, although this noise reduction battery is used as a battery, it can also be used as a means for energy oscillation.

FIG. 1 is a perspective view showing a noise reduction battery according to an embodiment of the present invention. (A) shows the positive electrode side, and (B) shows the negative electrode side. FIG. 2 is a cross-sectional view taken along line AA in FIG. FIG. 3 is an explanatory view showing a spiral forming conductor used in a noise reduction battery, wherein (A) is a spiral groove, (B) is a spiral protrusion, and (C) is a double spiral. The one in which a groove is formed is shown. FIG. 4 is an explanatory diagram showing an experimental apparatus for measuring an AC waveform flowing in the motor by driving the motor using a noise reduction battery as a power source. 5A and 5B are explanatory views showing conventionally used spiral forming conductors, in which (A) shows a spiral groove and (B) shows a spiral projection. FIG. 6 is an explanatory diagram showing an experimental apparatus for demonstrating the noise reduction effect of the spirally formed conductor. FIGS. 7A and 7B are explanatory diagrams showing experimental results, in which FIG. 7A shows a case where a spiral-forming conductor is not used, and FIG. 7B shows a case where a spiral-forming conductor is used.

Explanation of symbols

DESCRIPTION OF SYMBOLS 1 Noise reduction battery 2 Protection cylinder 3A, 3B Spiral formation conductor 3a Groove 3b Protrusion 3c Groove 4 Electrolytic paint 5 Japanese paper 6 Aluminum sheet 6A Conducting wire 7 Japanese paper 8 Circular lid 9 DC / AC converter 10 Step motor 11 Oscilloscope 100A, 100B Spiral Forming Conductor 100a Groove 100b Protrusion 101 Test Equipment 102 Dryer 103 Oscilloscope θ Angle

Claims (2)

A side electrode made of a spiral-formed conductor in which a spiral groove or protrusion is formed on the outer peripheral surface of a rod-shaped conductor ;
An electrolyte coating applied to the outer peripheral surface of the spiral-forming conductor;
Covering the outer peripheral surface of the spiral-formed conductor while in contact with the electrolyte coating, and the other electrode formed of a material different from the spiral-formed conductor;
A noise reducing battery having
Between the one side electrode and the other side electrode, a first paper body through which the electrolyte paint permeates is provided so as to wrap the electrolyte paint,
The other side electrode is formed of a metal sheet in order to improve the contact with the electrolyte paint,
A second paper body is wound as an insulator on the outer peripheral surface of the metal sheet ,
A protective cylinder having rigidity is provided so as to cover the outer peripheral surface of the second paper body,
In the electrolyte coating, powder obtained by firing a material containing 30-50% by weight of tourmaline, 30-50% by weight of precious jewels, 5-10% by weight of titanium, and 5-10% by weight of lapis, A noise reduction battery characterized by being mixed at a rate of 30% by weight . The noise-reducing battery according to claim 1 , wherein the electrolyte coating contains 0.01 to 0.08% by weight of an electronically conductive polymer and a polymer electrolyte .

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