JP2005160215A - Power multiplier - Google Patents

Abstract

<P>PROBLEM TO BE SOLVED: To obtain new power by obtaining output power larger than input power. <P>SOLUTION: This power multiplier is characterized in that: a capacitor, an inductance and a load are connected to a secondary circuit of a power supply transformer in an AC electric circuit; and a large phase-advance current is made to flow by generating a resonance phenomenon by the effective inductance of a secondary coil of the transformer and the capacitor; thus making load power larger than input effective power. A power generating unit returns part of an output of the power amplifier to an input, and does not necessitates energy. <P>COPYRIGHT: (C)2005,JPO&NCIPI

Description

The present invention relates to power generation greater than input power due to power multiplication.

The inductance and the capacitor by the induction coil are generally in a relationship that the flowing current is delayed by 90 degrees and advanced by 90 degrees compared to the voltage. The tuning action by the inductance and the capacitor or the resonance phenomenon is a very general well-known conventional technique, but these are combined to establish the present invention.

Electricity was mainly obtained from fuels such as hydropower, oil, and nuclear power. The depletion of these energy resources is no longer a matter of time and the impact on the global environment is immeasurable. Therefore, there has been a long-awaited proposal for a power generator based on a completely new principle that does not use any fuel. Solar cells, wind power generation, etc. are still under development for the purpose, but their usage is still very small. The present invention is a proposal having elements that can greatly solve these problems. In addition, it is natural that a part of the output of the power multiplier can be reduced to the input to make a permanent generator.

The present invention relies on the effective inductance of the secondary wire ring of the power transformer and the parallel capacitor to resonate with the power frequency and allow a very large resonance current to flow.

Previously, there was no invention of this kind based on the very simple word “you can't do more work than the energy you get”.
The effect of the present invention will be described.
The present invention obtains output power greater than input power. The amount is about twice or several times the input power. Of course, the efficiency factor greatly increases by improving the circuit and setting the transformer and inductor to the superconducting state. If the phase of the combined current of the inductor and the load is adjusted to just 90 degrees while there is a load, the efficiency becomes infinite. In other words, if the combined current phase of the inductor and the load is just 90 degrees behind, the combined current can be made almost zero by canceling and canceling with the current 90 degrees by the capacitor. If the combined current is zero, the passing power is zero. It exhibits a very unique phenomenon that the input power is zero (close to) despite supplying load power.
Therefore, output power larger than input power can be easily obtained. As described above, the efficiency is improved by improving the resonance circuit.
For example, if the efficiency is 5 times, it is natural that the power corresponding to 1 is fed back to the input power and the amount of electricity corresponding to 4 can be arbitrarily used outside.
Naturally, the electric power of the present invention is pollution-free, vibration-free, and noise-free, but above all, it should be noted that energy supply such as fuel is not necessary.

Since the present invention did not exist in the past, any implementation would be the best mode. There are roughly two embodiments.
The first is implemented simply as power multiplication. For example, a high-power device is driven by a low-power power supply facility.
The second is used as a generator. About 5kw as a general household power source. About 500kw for buildings. For factory use, about 5000kw will be representative. A compact and lightweight generator of about 20 KW to 50 kw, which replaces the drive engine for automobiles, is expected. It is highly expected that the battery will be replaced by micro power generation.
Nuclear power generation, which has a high risk burden due to the practical application of the present invention, can be reduced or discarded.

FIG. 1 is a principle view showing an example of the present invention. With reference to FIG.
An AC power supply G1 having a frequency of F excites the wire ring Lp of the transformer T2 with a voltage of E0 to induce a voltage of E1 on the secondary wire ring Ls.
The voltage E1 induced in the secondary ring Ls of the transformer T2 is connected to the capacitor C4.
An effective inductance including a leakage inductance exists in the secondary wire Ls of the transformer T2. The secondary wire Ls inductance of the transformer T2 generally has a very small inductance value compared to when the primary and secondary wires of the transformer T2 are open. This effective inductance is generally controlled by the leakage inductance caused by the current flowing through the wire ring and the leakage magnetic field.
Due to the series resonance of the inductance Ls and the capacitor C, a large 90 degree advance current iC flows to the capacitor C of 4 in FIG. Since the magnitude of the capacitor current iC is determined by the Q of the circuit, the circuit having a higher Q has a very large current. Moreover, it becomes an infinitely large electric current by making a device into a superconductive environment.
When the load resistor R6 is connected in this state, the capacitor current iC shifts from 90 degrees to 0 degrees, that is, in the same phase direction.
However, since the capacitor current iC is extremely large as described above, the angle of the combined current does not decrease much compared to the case of non-resonance. That is, the phase angle close to 90 degrees is maintained. This is an important matter of the present invention.

The power passing through 3 in FIG. 1 is as follows.
If the passing power is Pin and the current phase angle is φ1,
Pin = E1 × i1 × COSφ1.
If the power of the load R6 in FIG. 1 is Pout and the current phase angle is φ2,
Pout = E2 × i2 × COSφ2.
The relationship between Pin and Pout is that COSφ1 is a very small value.
The relationship Pin <Pout is maintained.
Therefore, there is a feature that output power larger than input power can be obtained.
A small value of COSφ1 means that the power factor is extremely bad. Therefore, the improvement is performed with the inductance of 8L in FIG. The inductance current iL having a reverse phase relationship with the capacitor current iC cancels each other to improve the power factor, thereby minimizing the current i1 in FIG.
Generally, transformer wires and inductors have internal resistance, but this internal resistance significantly impedes efficiency. The internal resistance is preferably zero, so that it is good to place in a low temperature environment or a superconducting environment.

The case where the present invention is configured as a permanent generator will be described with reference to FIG. The power multiplication effect is as already described.
P1 in FIG. 2 is input power generated by the AC converter G11. A part of the electric power P2 generated by the electric power multiplication action is reduced to electric power P3 corresponding to P1 to the input electric power P1, and the rectifier D17 charges the direct current battery B18. The battery B18 suppresses the initial start of the apparatus and voltage fluctuation. Thereafter, the load power P4 can be used for an arbitrary load. The amount of electricity of P4 is as follows.
P4 = P2-P3.
P2> P1
It will be understood that power is continuously supplied to the outside because P2 = P3 + P4.

The present invention is the realization of human dreams. The power generated in the present invention is pollution-free and can be stably supplied anywhere on the earth. Basically, the power cost is free.
Therefore, the industrial applicability is infinite.

1 shows an embodiment of power multiplication according to the present invention. An embodiment configured as a generator using power multiplication is shown.

Explanation of symbols

FIG.
1 is AC power supply G
2 is a power transformer T
3 is a composite current passing point i1.
4 is a capacitor C
5 is the current iC flowing in the capacitor
6 is load R
7 is a current iR flowing through the load R
8 is the inductance L
9 is the current iL flowing through the inductance L
FIG.
11 is an AC converter G
12 is a power transformer T
13 is a capacitor C
14 is an inductance L
15 is the power multiplied P2 passing point 16 is the load R
17 is a rectifier D
18 is battery B

Claims (2)

In a circuit in which there is a power transformer in an AC power circuit and a parallel capacitor, a parallel inductor and a load are connected to a secondary circuit of the transformer,
The effective inductance including the leakage inductance of the secondary wire ring of the power transformer and the parallel capacitor form a series resonance or equivalent resonance circuit, and a sufficiently large resonance current of 90 degrees is passed through the parallel capacitor. . Even if the load is connected, the combined current phase of the parallel capacitor and the load is large and does not shift in the same phase direction by setting the load current to be smaller than the resonance current flowing in the capacitor (to maintain a high angle phase close to 90 degrees). Since the transformer secondary power is dominated by the current phase, the input power is reduced. Thereby, transformer secondary power, that is, output power larger than the input power of the parallel capacitor and the load can be obtained.
The parallel inductance at the secondary output of the power transformer improves the power factor of the current and reduces the current of the transformer secondary circuit. The combined current cancels the parallel capacitor current and the parallel inductance current to make a small current. . As a result of these, a power multiplier that can consume a load power larger than the power supplied from the power transformer in the load resistor. There is a battery, and the battery power supply is AC converted to AC power (P1) to obtain power (P2) multiplied by the power multiplier of claim 1, and a part of the multiplied power P2 is used as the battery. A power generator by a power multiplier configured so as to return to the power source (P1) and use surplus power (P3 = P2-P1) as arbitrary power.

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