Power saving patch and method thereof

Abstract

The method mainly comprises the following steps: respectively preparing rare earth, cobalt, nickel, aluminum oxide, magnesium oxide and iron oxide into metal powder or mineral powder, heating at high temperature to form a liquid state, mixing, and cooling to form a solid state, thereby forming at least one patch main body; at least one connector is additionally arranged on one side of the patch body, the patch body can be combined to one side of a storage battery, a battery or a power supply main switch through the connector when power saving action is to be carried out, and when the electric power device generates current due to chemical action, the current cannot take away energy by utilizing the action of magnetic lines on conductive molecules in the current, so that the power saving effect is achieved. Harmonic waves are effectively suppressed, and voltage is stabilized.

Description

[Technical field]

[0001] The present invention relates to a power-saving patch and a method thereof, which utilizes magnetic lines of force to act on conductive molecules in an electric current so that the electric current cannot take away energy, effectively suppresses harmonics, and stabilizes voltage. [Background technology]

[0002] Energy and the environment are closely related. Energy refers to material resources that can produce energy, such as fuels, petroleum processing products and electricity. These are all usable sources of energy because they can be easily converted into other types of energy for specific uses. In nature, energy can take several different forms, such as heat, electrical energy, radiation, chemical energy, etc. Many of these forms can be easily converted into another with the help of devices such as batteries that use chemical energy to convert electrical energy.

[0003] Especially in the current industry, electricity is the most important energy source. Electricity is necessary in daily life, such as lamps, electronic products, etc. Even the current fuel vehicles and electric vehicles must use electricity to drive, which is enough to show the importance of electricity. However, in order to provide more electricity and the issue of nuclear power abolition has risen, thermal power plants have been expanded or added to meet the electricity needs of the majority of the people, which has caused environmental damage and is very unenvironmentally friendly.

[0004] Therefore, saving electricity has become an issue that both the public and the government must pay attention to. [Summary of the invention]

[0005] The main purpose of the present invention is to provide a power-saving patch and method thereof which utilizes magnetic lines of force to act on conductive molecules in an electric current so that the electric current cannot carry away energy, effectively suppresses harmonics, stabilizes voltage, and reduces power consumption so that users do not need to charge frequently, thereby effectively saving electric energy. The life of the electric device is increased and the device can be used for a longer period of time, thereby effectively reducing waste pollution.

[0006] The present invention can achieve the above-mentioned main purpose. The technology includes at least one patch body, which contains rare earth, cobalt, nickel, aluminum oxide, magnesium oxide, and iron oxide, and is mixed. At least one bonding piece that can make the patch body bonded to an electric device is provided on one side of the patch body. The manufacturing method includes the steps of (a) taking a rare earth metal powder of an element of rare earth; (b) taking a cobalt metal powder of an element of cobalt; (c) taking a nickel metal powder of an element of nickel; (d) taking an aluminum oxide mineral powder of an element of aluminum oxide; (e) taking a magnesium oxide mineral powder of an element of magnesium oxide. (f) taking an iron oxide mineral powder of an element of iron oxide; (g) heating the rare earth metal powder obtained in step (a), the cobalt metal powder obtained in step (b), the nickel metal powder obtained in step (c), the aluminum oxide mineral powder obtained in step (d), the magnesium oxide mineral powder obtained in step (e), and the iron oxide mineral powder obtained in step (f) at high temperature to liquefy them and then mixing them, and forming a patch body after cooling and solidification; (h) taking a binding member and binding it to one side of the patch body so that the patch body can be combined with one side of an electric device.

[0007] Thus, when performing power saving operation, the patch body can be combined with one side of the power device (battery, battery, or main power switch) by using a combination piece, and the above-mentioned effect can be achieved by using the magnetic lines of force to act on the conductive molecules in the current when the power device generates current due to chemical reaction through the patch body composed of rare earth, cobalt, nickel, aluminum oxide, magnesium oxide, and iron oxide.

[0008] The above technology can overcome the environmental hazards and environmental problems of conventional use.

Brief Description of the Drawings

[0009] [Brief description of the symbols in the figure]: Patch body...1 Rare Earth·····11 Cobalt...12 Nickel...13 Alumina····14 Magnesium oxide····15 Iron oxide····16 Joints····2 Power installation…3 Figure 1 It is a three-dimensional diagram of a first preferred embodiment of the present invention. Figure 2 It is a schematic block diagram of a first preferred embodiment of the present invention. Figure 3 FIG. 4 is a flow chart of the steps of the first preferred embodiment of the present invention. Figure 4It is a schematic diagram of a combined battery according to a first preferred embodiment of the present invention. Figure 5 FIG. 1 is a schematic diagram of a combined battery according to a second preferred embodiment of the present invention. Figure 6 Schematic diagram of a main power switch in combination with a third preferred embodiment of the present invention. Figure 7 Schematic diagram of a double-sided tape according to a fourth preferred embodiment of the present invention. Figure 8 FIG. 4 is a schematic diagram of an adhesive according to a fifth preferred embodiment of the present invention. [Specific implementation method]

[0010] Please refer to the first to fourth figures, which are three-dimensional diagrams of the first preferred embodiment of the present invention and schematic diagrams of the battery. It can be clearly seen from the figures that the present invention includes:

[0011] At least one patch body 1 including rare earth 11, cobalt 12, nickel 13, aluminum oxide 14, magnesium oxide 15, and iron oxide 16 mixed together. The first figure of this embodiment takes a single patch body 1 as an example, and the fourth figure takes two patch bodies 1 as an example; and

[0012] At least one coupling member 2 is provided on one side of the patch body 1 and coupled to one side of an electric device 3. The first to fourth figures of this embodiment take a single coupling member 2 as an example.

[0013] The coupling member 2 of this embodiment is an adhesive tape as an example.

[0014] The power device 3 of this embodiment is a battery as an example.

[0015] Among them, the weight percentage of the rare earth metal powder 11 of this embodiment is between 48% and 52%, the weight percentage of the cobalt metal powder 12 is between 13% and 17%, the weight percentage of the nickel metal powder 13 is between 13% and 17%, the weight percentage of the aluminum oxide mineral powder 14 is between 8% and 12%, the weight percentage of the magnesium oxide mineral powder 15 is between 3% and 7%, and the weight percentage of the iron oxide mineral powder 16 is between 3% and 7%. In terms of the best value, the weight percentage of the rare earth metal powder 11 is 50%, the weight percentage of the cobalt metal powder 12 is 15%, the weight percentage of the nickel metal powder 13 is 15%, the weight percentage of the aluminum oxide mineral powder 14 is 10%, the weight percentage of the magnesium oxide mineral powder 15 is 5%, and the weight percentage of the iron oxide mineral powder 16 is 5%.

[0016] The so-called rare earth 11, or rare earth metals, are second only to alkali metals and alkaline earth metals in activity. Cerium and copper are the rare earth elements with the highest content. Their similar chemical properties lead to their tendency to form alloys in pairs or in groups. It is difficult to separate rare earth 11 elements from each other, resulting in difficulties in mining and extraction, so they are called rare earth elements. In addition, rare earth 11 can reduce the collision of electrons using the principles of quantum mechanics, thereby achieving power saving effects.

[0017] The so-called cobalt 12, with the chemical element symbol Co, is a transition metal with magnetic properties. The properties of cobalt 12 are similar to those of iron and nickel 13. In the chemical periodic table, cobalt 12 is just between iron and nickel 13. Cobalt 12 does not react with water and air at room temperature, but even dilute acid can slowly dissolve cobalt 12. When heated, cobalt 12 will react violently with oxygen, sulfur, chlorine, and bromine. Due to its magnetic properties, it can reduce the current, thereby achieving the effect of saving electricity.

[0018] Nickel 13, with the chemical symbol Ni, is harder and tougher than iron, has ferromagnetism and ductility, can conduct electricity and heat, and is a transition element. Its content in the earth's crust is about 0.018%, and it often coexists with pyrite. It is also often used to make coins, alloys, and stainless steel. Because of its magnetic properties, it can reduce current and thus achieve power saving.

[0019] The so-called aluminum oxide 14 is a white solid, also known as bauxite in mining, ceramics and materials science. The reserves of aluminum oxide 14 on the earth are second only to silicon oxide. It is a component of ceramic raw materials. Aluminum and oxygen have a strong bond in the oxide, which makes aluminum oxide 14 have the highest hardness among oxides. It has high chemical stability and excellent corrosion resistance to most acids, alkalis, salts and molten solutions.

[0020] The so-called magnesium oxide 15, also known as magnesia, is magnesium oxide, an ionic compound, a white solid at room temperature. Magnesium oxide 15 exists in nature in the form of periclase. Magnesium oxide 15 is slightly soluble in water and acid, and reacts with water when crushed to form magnesium hydroxide.

[0021] The so-called iron oxide 16, also known as magnetic red iron oxide or high permeability iron oxide 16, can be used as a catalyst, a polishing agent for glass, gems, and metals, and can be used as a raw material for iron smelting.

[0022] As can be seen from the third figure, the patch body of the present invention can be manufactured by the following steps:

[0023] (a) rare earth metal powders of rare earth elements;

[0024] (b) cobalt metal powder which is the element of cobalt;

[0025] (c) nickel metal powder which is the element of nickel;

[0026] (d) an alumina mineral powder which is the element of aluminum oxide;

[0027] (e) magnesium oxide mineral powder which is the element of magnesium oxide;

[0028] (f) iron oxide mineral powder which is the element of iron oxide;

[0029] (g) the rare earth metal powder obtained in step (a), the cobalt metal powder obtained in step (b), the nickel metal powder obtained in step (c), the aluminum oxide mineral powder obtained in step (d), the magnesium oxide mineral powder obtained in step (e), and the iron oxide mineral powder obtained in step (f) are mixed after being liquefied by high-temperature heating, and are cooled and solidified to form a patch body.

[0030] If the patch body is finished and can be pasted by the user, step (h) is performed to take a coupling member and couple it to one side of the patch body so that the patch body can be coupled to one side of an electric device.

[0031] In other words, when the user wants to perform energy-saving functions on the vehicle power device 3 (the battery in this embodiment is used as an example), the bonding member 2 must be attached to one side of the surface of the power device 3 first. At this time, the patch body 1 is attached to the side wall of the power device 3 by the bonding member 2. When the vehicle is started, because the patch body 1 is a combination of rare earth 11, cobalt 12, nickel 13, aluminum oxide 14, magnesium oxide 15, and iron oxide 16, it can simulate the characteristics of quantum mechanical superconducting materials. An ideal superconductor will present a zero resistance state below a specific temperature, and even if the specific temperature is not reached, it still has a completely antimagnetic characteristic, so it can generate a strong magnetic field. The superconductor oscillates at a frequency of hundreds of thousands of microwaves per second, so that its magnetic field is superimposed on each other to generate a strong cutting line. In the discharge chemical formula (PbO2(S)+PB(S)+2H2SO4(aq)→2PbSO4(S)+2H2O(l)), the power device 3 is in the reaction of the positive electrode reaction formula PbO2+4H + +SO42 -+2e-→2H2O+PbSO4, when the electron flow e- is generated and contacts the negative magnetic field line of the present invention, the overloaded conductive molecules can be cut and separated to interrupt the Van Der Waals' force between molecules, thereby miniaturizing the conductive molecules and free molecules, improving the constant electric coefficient in the current loop, and avoiding the electrostatic interaction between molecules and atoms. The miniaturized single molecule has a better conductivity, so it can improve the conductive efficiency, reduce the resistivity, and further reduce the loss caused by power transmission (such as hysteresis loss, eddy current loss or resistance loss, etc.), achieve the purpose of power saving, and especially suppress harmonics, stabilize voltage, and reduce resistance.

[0032] In addition, when the power device 3 is charged, the reaction formula of the negative electrode is Pb+SO42-→PbSO4+2e-, and the patch body 1 will also cut the magnetic lines of the electron flow e-, which can reduce the crystallization problem of lead sulfate and thus increase the service life of the power device 3.

[0033] Please refer to the fifth figure at the same time, which is a schematic diagram of the combined battery of the second preferred embodiment of the present invention. It can be clearly seen from the figure that the difference between this embodiment and the above embodiment is that the patch body 1 can be flatly attached to one side of the power device 3 through the adhesiveness of the combining member 2. The power device 3 described in this embodiment is an example of the battery of the chassis of an electric vehicle. Therefore, through the design of the patch body 1 of this case, the battery of the electric vehicle can be effectively suppressed from harmonics, stabilized from voltage, and reduced from resistance, thereby achieving the purpose of power saving and effectively improving the endurance of the electric vehicle. The rest of the operating principles are the same as those of the first preferred embodiment, so they will not be repeated.

[0034] Please refer to FIG. 6 at the same time, which is a schematic diagram of the third preferred embodiment of the present invention combined with the main power switch. It can be clearly seen from the figure that the difference between this embodiment and the above embodiments is that the power device 3 of this embodiment is taken as the main power switch, and the patch body 1 can be set at one side of the power device 3. In this embodiment, the patch body 1 is attached to the inner side of the door of the power device 3 through the coupling member 2. In this way, when the door is closed and the power device 3 starts to be powered on, the surrounding of the power device 3, that is, including the iron door, has conductor properties, so that the patch body 1 can form an interactive mode with the power device 3 as described in the first embodiment by means of the conductor properties, which can improve the conductivity efficiency, reduce the resistivity, and thus reduce the loss caused by power transmission (such as hysteresis loss, eddy current loss or resistance loss, etc.), which means that the current cannot take away the energy, effectively suppressing harmonics and stabilizing the voltage, thereby achieving the purpose of saving electricity. The rest of the operating principles are the same as the first preferred embodiment, so they will not be repeated.

[0035] Please refer to FIG. 7 at the same time, which is a schematic diagram of a double-sided adhesive tape according to a fourth preferred embodiment of the present invention. It can be clearly seen from the figure that the difference between this embodiment and the above-mentioned embodiments is that the coupling member 2 of this embodiment is a double-sided adhesive tape, and multiple double-sided adhesive tapes are used as an example. Through the design of the coupling member 2, when the user wants to couple the patch body 1 to a battery, a battery, or a main power switch, the user can directly tear off the release paper on the coupling member 2, and the patch body 1 can be quickly coupled and attached, which is very convenient.

[0036] Please also refer to FIG. 8, which is a schematic diagram of the adhesive of the fifth preferred embodiment of the present invention. It can be clearly seen from the figure that the difference between this embodiment and the above embodiments is that the bonding member 2 of this embodiment is an adhesive, and this bonding member 2 can be one of water-based glue, oil-based glue, hot melt glue, frozen glue, or repeated peeling and sticking R glue. Therefore, according to the type of bonding member 2, the patch body 1 can be attached to a battery, a battery, or a side of the main power switch. If it is in the form of repeated peeling and sticking R glue, it can be repeatedly peeled and stuck by the user for reuse.

[0037] The power saving patch and method of the present invention are key to improving the conventional technology in that:

[0038] First, through the patch body 1 having a combination of rare earth 11, cobalt 12, nickel 13, aluminum oxide 14, magnesium oxide 15, and iron oxide 16, it is possible to suppress harmonics, stabilize voltage, and reduce resistance, thereby having the advantage of saving electricity.

[0039] Second, when the patch body 1 is combined with one side of the battery of the electric vehicle, the endurance of the electric vehicle can be effectively improved.

[0040] Third, when the patch body 1 is combined with the inner side of the door of the power device 3, the conductive efficiency can be improved, the resistivity can be reduced, and the loss caused by power transmission (such as hysteresis loss, eddy current loss or resistance loss, etc.) can be reduced, which means that the current cannot take away the energy, effectively suppressing harmonics and stabilizing the voltage, thereby achieving the purpose of saving electricity.

[0041] Although various embodiments of the present invention have been shown and described herein, such embodiments are provided by way of example only, and any theory of operation or benefit provided herein is intended only as an aid to the description of the present invention; such theories and explanations do not bind or limit the scope of the patent application regarding tissue remodeling achieved by practicing the present invention. Those skilled in the art can now conceive of many changes, modifications or substitutions without departing from the present invention. It should be understood that various alternatives to the embodiments of the invention described herein can be adopted in practicing the present invention. The scope of the present invention, methods and structures within the scope of the present invention are intended to include equivalent forms.

[0042] In summary, the power-saving patch and method of the present invention can truly achieve its efficacy and purpose when used, so the present invention is truly an invention with excellent practicality.

Claims

1. A power-saving patch, characterized in that : The invention has at least one patch body which contains at least rare earth, cobalt, nickel, aluminum oxide, magnesium oxide and iron oxide and is mixed. At least one coupling piece is arranged on one side of the patch body, and the coupling piece is used for arranging the patch body on one side of an electric device.

2. The power saving patch as claimed in claim 1, characterized in that , wherein the combining member is one of a tape, a double-sided tape, or an adhesive.

3. The power saving patch as claimed in claim 1, characterized in that , wherein the electrical device is one of a battery, a cell, or a main power switch.

4. The power saving patch as claimed in claim 1, characterized in that , wherein the weight percentage of the rare earth metal powder is between 48% and 52%, the weight percentage of the cobalt metal powder is between 13% and 17%, the weight percentage of the nickel metal powder is between 13% and 17%, the weight percentage of the aluminum oxide mineral powder is between 8% and 12%, the weight percentage of the magnesium oxide mineral powder is between 3% and 7%, and the weight percentage of the iron oxide mineral powder is between 3% and 7%.

5. The power-saving patch as claimed in claim 4, wherein the weight percentage of the rare earth metal powder is 50%, the weight percentage of the cobalt metal powder is 15%, the weight percentage of the nickel metal powder is 15%, the weight percentage of the aluminum oxide mineral powder is 10%, the weight percentage of the magnesium oxide mineral powder is 5%, and the weight percentage of the iron oxide mineral powder is 5%.

6. A method for manufacturing a power-saving patch, characterized in that , mainly including the following steps: (a) taking a rare earth metal powder of a rare earth element; (b) taking a cobalt metal powder of the element cobalt; (c) taking a nickel metal powder of the element nickel; (d) taking an aluminum oxide mineral powder of an element which is aluminum oxide; (e) taking a magnesium oxide mineral powder of an element which is magnesium oxide; (f) taking an iron oxide mineral powder of an element which is iron oxide; (g), liquefying the rare earth metal powder obtained in step (a), the cobalt metal powder obtained in step (b), the nickel metal powder obtained in step (c), the aluminum oxide mineral powder obtained in step (d), the magnesium oxide mineral powder obtained in step (e), and the iron oxide mineral powder obtained in step (f) by high temperature heating, mixing them, and cooling and solidifying them to form a patch body; and (h) Take a coupling member and couple it to one side of the patch body so that the patch body can be coupled to one side of an electric device.

7. The method for manufacturing the power saving patch as claimed in claim 6, characterized in that , wherein the combining member is one of a tape, a double-sided tape, or an adhesive.

8. The method for manufacturing the power saving patch according to claim 6, characterized in that , wherein the electrical device is one of a battery, a cell, or a main power switch.

9. The method for manufacturing a power-saving patch as claimed in claim 6, characterized in that , wherein the weight percentage of the rare earth metal powder is between 48% and 52%, the weight percentage of the cobalt metal powder is between 13% and 17%, the weight percentage of the nickel metal powder is between 13% and 17%, the weight percentage of the aluminum oxide mineral powder is between 8% and 12%, the weight percentage of the magnesium oxide mineral powder is between 3% and 7%, and the weight percentage of the iron oxide mineral powder is between 3% and 7%.

10. The method for manufacturing a power-saving patch according to claim 6, characterized in that , wherein the weight percentage of the rare earth metal powder is 50%, the weight percentage of the cobalt metal powder is 15%, the weight percentage of the nickel metal powder is 15%, the weight percentage of the aluminum oxide mineral powder is 10%, the weight percentage of the magnesium oxide mineral powder is 5%, and the weight percentage of the iron oxide mineral powder is 5%.

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