JP6758738B1 - Structure of energy-saving sticking sheet - Google Patents

Abstract

PROBLEM TO BE SOLVED: To provide an energy-saving sticking sheet which can extend battery life, balance current and save energy by simply fixing an energy-saving element to at least one side of a battery surface with an adhesive element. An energy-saving sticking sheet is mainly an energy layer defined in at least one energy-saving element coupled to a battery side and the energy-saving element, and is contained in a calcium oxide layer and the calcium oxide layer. A magnesium oxide layer located, an aluminum oxide layer located in the calcium oxide layer and located on the magnesium oxide layer side, and an iron oxide layer located in the calcium oxide layer and located on the aluminum oxide layer side. Includes an energy layer including, and at least one adhesive element provided on the energy-saving element side and fixing the energy-saving element to the battery. [Selection diagram] Fig. 3

Description

The present invention relates to the structure of an energy-saving sticking sheet, and more particularly to the structure of an energy-saving sticking sheet that achieves an energy-saving effect by balancing the current generated by the battery through the operation of simply sticking the energy-saving element and extending the life of the battery.

Lead-acid batteries are also called lead-acid batteries and are a type of storage batteries. The so-called "battery" device mainly refers to lead-acid batteries. A lead-acid battery is generally composed of a positive electrode plate, a negative electrode plate, a separator, an electric tank, an electrolytic solution, a connection terminal, and the like. The positive electrode plate is a lead dioxide plate (PbO ₂ ), and the negative electrode plate is a lead plate (Pb). Its operating principle can be restored by recharging after discharging by mutual conversion between chemical energy and DC electrical energy, and has the effect of repeated use. In addition, the electric resistance in the lead-acid battery is small, it can meet the demand for large current discharge, and it can be classified into small density, medium density, and large density according to the battery type. Widely used in fields such as control switches, alarms, car traction power supplies, and electric bicycles, dense batteries are mainly used as communication backup power supplies for large base stations.

Lead-acid batteries have a lifespan of about 2 to 4 years, but most manufacturers offer a 6-12 month warranty period because lead-acid batteries, which are in a low electricity state for a long period of time, have a significantly shorter lifespan. provide. The main reasons are that there are too many lead sulfate crystals with poor conductivity, high electrical resistance, and low dissolution rate, and they gather on the electrode plate to form hard crystals. On the other hand, in order to solve the problem of deterioration of lead-acid battery use, a battery life extender that charges using a negative pulse current is a common product. However, it is very inconvenient to use because the concentration of the electrolytic solution is non-uniform, it is difficult to control the pulse frequency, it is necessary to use it again after diffusion homogenization for a certain period of time, and radio wave interference with surrounding electronic products occurs. Is.

Therefore, how to solve the above-mentioned conventional problems and defects is in the direction of research and improvement by the applicant of the present invention and related manufacturers in the present industry.

In view of the above defects, the applicant of the present invention has collected related materials, evaluated and considered in various fields, and based on the experience gained in this industry for many years, continued trial production and review. He invented the structure of the energy-saving sticking sheet that achieves the energy-saving effect by balancing the current generated by the battery through the simple sticking operation of the energy-saving element and extending the life of the battery.

A main object of the present invention is to fix an energy saving element to a battery by using an adhesive element so that the energy layer acts on the current of the battery, and to balance the current to save energy and extend the battery life. To achieve.

In order to achieve the above object, the main structure of the present invention includes at least one energy-saving element coupled to the battery side, an energy layer is defined in the energy-saving element, and at least one adhesive is attached to the energy-saving element side. An element is provided to fix the energy-saving element to the battery, in which the energy layer is a calcium oxide layer, a magnesium oxide layer located in the calcium oxide layer, and magnesium oxide located in the calcium oxide layer. It includes an aluminum oxide layer located on the layer side and an iron oxide layer located in the calcium oxide layer and located on the aluminum oxide layer side.

When the user exerts an action on the battery by utilizing the present invention, if the energy saving element is easily fixed to at least one side of the surface of the battery by the adhesive element, the operation of attaching the energy saving element to the battery is completed. Next, when the battery generates an electric current by chemical action through the energy layer in which components such as calcium oxide, magnesium oxide, aluminum oxide, and iron oxide are installed in multiple layers in the energy-saving element, the vibration of high-frequency microwaves causes it. Generates high-intensity magnetic field lines and causes them to act on conductive molecules in the current to improve the normal current coefficient in the electron flow electric circuit, reduce interference, extend battery life, balance current, and save energy. Achieve the purpose.

The above technology overcomes the problems of a conventional battery such as short life, difficult pulse frequency control, control of charging time, and easy interference with surrounding electronic devices, and the above-mentioned excellent practical progress. Achieve sex.

It is a perspective view of a preferable embodiment of this invention. It is a figure which shows the plane of the energy layer of the preferred embodiment of this invention. It is a structural block diagram of a preferred embodiment of the present invention. It is a figure which shows the coupling in the preferred embodiment of this invention. It is a battery discharge diagram of a preferred embodiment of the present invention. It is a figure which shows the operation of the preferable embodiment of this invention. It is a figure which shows the coupling in another preferable embodiment of this invention.

In order to fully understand the technical means and structures adopted in the present invention to achieve the above objectives and effects, the features and functions of the preferred embodiments of the present invention will be described in detail below based on the drawings. explain.

1 to 3 are perspective views or structural block diagrams of preferred embodiments of the present invention, which are referred to. As can be clearly seen from the drawings, the present invention includes at least one energy-saving element 1, an energy layer 2 defined in the energy-saving element 1, and at least one adhesive element 3 provided on the energy-saving element side. ..

The energy-saving element 1 exhibits a sheet form and is coupled to the battery 4 side. Further, the energy-saving element 1 is one of a metal made of copper or a metal made of steel. On the other hand, the battery 4 is a lead oxide storage battery.

The energy layer 2 includes a calcium oxide layer 21, a magnesium oxide layer 22 located in the calcium oxide layer 21, and an aluminum oxide layer 23 located in the calcium oxide layer 21 and located on the magnesium oxide layer 22 side. And the iron oxide layer 24 located in the calcium oxide layer 21 and on the side of the aluminum oxide layer 23. Among them, the weight% ratio of the calcium oxide layer 21, the magnesium oxide layer 22, the aluminum oxide layer 23 and the iron oxide layer 24 is 80%: 10%: 8.5%: 1.5%.

The adhesive element 3 fixes the energy saving element 1 to the battery 4. Further, the adhesive element 3 is one of an adhesive tape, a double-sided tape or an adhesive.

The structure of the present technology may have been understood from the above explanation, but by combining according to this structure, the current generated by the battery 4 is balanced through the operation of easily attaching the energy saving element 1, and the life of the battery 4 is extended. By extending it, it has the advantage of achieving an energy saving effect. A detailed explanation will be given below.

1 to 6 are perspective views or diagrams showing operations of a preferred embodiment of the present invention, which are also referred to. As can be clearly seen from the drawings, the energy-saving element 1 of the present embodiment uses a rectangular sheet made of aluminum as a manifestation of its appearance, and the energy-saving element made of aluminum reacts with oxygen by itself. Since it is easily and rapidly oxidized, an oxide layer for rust prevention is formed, so that the energy saving element 1 has a function of preventing the occurrence of rust. The rectangular sheet can be easily fixed to the surface of the battery 4 due to its flat, light and thin outer shape, and can be attached to the surface of the battery 4 in a large area according to the outer shape of the rectangular body of the battery 4 which is more often seen. The action effect can be enhanced. Further, as shown in FIG. 2, the energy layer 2 of the energy saving element 1 is a calcium oxide layer 21, a magnesium oxide layer 22, an aluminum oxide layer 23, an iron oxide layer 24, and a calcium oxide layer 21 in this order from top to bottom. The energy layer 2 having this layered structure allows the user to easily exert an action on the energy saving element 1 by the sticking operation of the adhesive element 3, for example, by sticking the adhesive tape, and exerts the power saving effect of the battery 4.

Specifically, the energy layer 2 of the present invention imitates the characteristics of a superconducting material of quantum mechanics, and an ideal superconductor exhibits a state of zero resistance at a specific temperature or lower, and reaches the specific temperature. Since it has complete diamagnetism even if it does not reach it, a strong magnetic field is generated by this. The magnetic fields of superconductors overlap each other due to the frequency of microwave vibrations hundreds of thousands of times per second, and strong cutting lines are generated. Battery 4 discharge the chemical formula _{(PbO 2 (S) + Pb} (S) + 2H 2 SO 4 (aq) → 2PbSO 4 (S) + 2H 2 O (1)) in the reaction of the positive electrode Scheme ^{_{PbO 2 + 4H + SO 4 2-}} + 2e - → In 2H ₂ O + PbSO ₄ , when an electron current e ⁻ is generated, when it comes into contact with the negative electrode magnetic field line of the present invention, the overloaded conductive molecules are cut and separated, and the van der Waals force (Van der Waals) between the molecules is performed. 'Force) is cut off, which refines conductive and free molecules, improves the current coefficient in the current circuit, avoids electrostatic interactions between molecules and atoms, and creates a single molecule after miniaturization. By having good conductivity, conductivity efficiency can be improved, electrical resistance can be reduced, loss due to power transmission (for example, hysteresis loss, eddy current loss, electrical resistance loss, etc.) can be reduced, and the purpose of power saving can be achieved. ..

On the contrary, when charging the battery 4, the reaction formula Pb + SO ₄ ^2- → PbSO ₄ + 2e ⁻ of the negative electrode is used, and the energy-saving element 1 also cuts the electron flow e ⁻ with magnetic lines of force, and leads crystal sulfate It reduces problems and improves the service life of the battery 4.

Further, FIG. 7 is a diagram showing the binding in another preferred embodiment of the present invention, which should be referred to at the same time. When composed of the above components, as can be clearly seen from the drawings, the present embodiment and the above embodiment are substantially the same, and there are minor differences. The adhesive method is used for the adhesive element 3a, and the energy saving element 1a and the battery are used. The difference is that 4a is combined. By providing the user with a different coupling method, it is possible to reduce the influence on the appearance of the energy-saving element 1a in addition to avoiding the problem that the adhesive tape cannot adhere to the surface of the battery 4a due to oil stains.

Finally, an experimental example is shown. In the first experimental example, the battery voltage was measured in the case where the energy saving element 1 according to the above-described embodiment was attached to the car battery of the applicant's business vehicle and in the case where the energy saving element 1 was not attached.
・ Date and time: About 10 minutes from 16:00 on May 6, 2nd year of Reiwa ・ Vehicle information: 2010 Toyota Liteace Model: ABF-S402M Mileage: 165738km
・ Measuring equipment: Digital multimeter AD-5529 manufactured by A & D Co., Ltd.
-Measurement method: After the warm-up operation was completed, all electrical components and air conditioners were turned off while the water temperature was stable, the engine speed was set to the idling state, and the battery voltage was measured. From 16:00, the measurement was first performed with the energy-saving element 1 attached, and then the energy-saving element 1 was removed and the measurement was performed under the same conditions. It takes about 10 minutes.

The measurement results are as follows.
・ Energy saving element 1 is attached: 14.55V (temperature approx. 31 ° C, humidity approx. 52%)
・ Energy saving element 1 not attached: 13.96V (temperature approx. 31 ° C, humidity approx. 48%)

In the above experimental example, it can be seen that the voltage is increased by attaching the energy saving element 1 to the battery.

In the second experimental example, the applicant's business vehicle is driven on the same business route for 10 days under the same conditions depending on whether the energy-saving element 1 according to the above-described embodiment is attached to the car battery or not. I let you. In each case, the mileage (km) and the amount of refueling (L) were recorded, and the fuel consumption (km / L) and the average fuel consumption were obtained.

表１は、省エネ素子１をバッテリーに貼り付けない場合の結果を示している。平均燃費は、８．７４ｋｍであった。

Table 1 shows the results when the energy saving element 1 is not attached to the battery. The average fuel consumption was 8.74 km.

表２は、省エネ素子１をバッテリーに貼り付けた場合の結果を示している。平均燃費は、９．５３ｋｍであった。

Table 2 shows the results when the energy saving element 1 is attached to the battery. The average fuel consumption was 9.53 km.

In the above experimental example, the average fuel consumption was improved by about 9% before and after the energy saving element 1 was attached to the battery. It is considered that the load on the engine was reduced and the fuel consumption was improved by increasing the voltage of the battery by attaching the energy saving element 1.

It should be noted that the above description is merely a preferred embodiment of the present invention, and this does not limit the scope of rights of the present invention. It is hereby expressed that simple modifications and equal structural changes made using the contents of the specification and drawings of the present invention are also included in the scope of rights of the present invention.

As described above, since the structure of the energy-saving sticking sheet of the present invention can surely achieve its effect and purpose when used, the present invention is an invention having excellent practicality and satisfies the utility model registration requirements. There is. Since the application is filed in accordance with the law, we request that the Examining Commissioner promptly approve the registration of the present invention and guarantee the applicant's creative efforts. If you have any questions, please let us know and the applicant will do our best to cooperate.

1, 1a Energy saving element 2 Energy layer 21 Calcium oxide layer 22 Magnesium oxide layer 23 Aluminum oxide layer 24 Iron oxide layer 3, 3a Adhesive element 4, 4a Battery

Claims (6)

The structure of the energy-saving sticking sheet, mainly
At least one energy-saving element coupled to the battery side,
The energy layer defined in the energy-saving element, the calcium oxide layer, the magnesium oxide layer located in the calcium oxide layer, and the oxidation located in the calcium oxide layer and on the magnesium oxide layer side. An energy layer including an aluminum layer and an iron oxide layer located in the calcium oxide layer and on the side of the aluminum oxide layer.
An energy-saving sticking sheet provided on the energy-saving element side and including at least one adhesive element for fixing the energy-saving element to the battery. The structure of the energy-saving sticking sheet according to claim 1.
The energy-saving element is an energy-saving sticking sheet which is one of a metal made of copper or a metal made of steel. The structure of the energy-saving sticking sheet according to claim 1.
The energy-saving element is an energy-saving sticking sheet in the form of a sheet. The structure of the energy-saving sticking sheet according to claim 1.
The battery is an energy-saving sticking sheet that is a lead-acid battery. The structure of the energy-saving sticking sheet according to claim 1.
The adhesive element is an energy-saving adhesive sheet that is one of an adhesive tape, a double-sided tape, or an adhesive. The structure of the energy-saving sticking sheet according to claim 1.
The weight% ratio of the calcium oxide layer, the magnesium oxide layer, the aluminum oxide layer and the iron oxide layer is 80%: 10%: 8.5%: 1.5%, which is an energy-saving sticking sheet.

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