TWM588399U - Electronic amplifying system by resonance - Google Patents

Abstract

A device for inducing and amplifying electric energy through resonance and vibration, the device uses the vibration of a motor Motion generates voltage and current in the motor and generates amplification. The aforementioned motors are mainly DC motors, including the ability to adjust and control the adjustment of output current and voltage by adding electronic components with predictable results.

Description

Electronically amplified system through resonance

The invention relates to a device for generating electric current and voltage through the vibration of an electric motor, including the ability to adjust and control the output current and voltage by adding electric components with predictable results.

This application has conducted a preliminary examination of prior art patents, and has revealed prior art patents in similar fields or similar uses. However, the prior art inventions do not disclose elements that are the same or similar to the present device, method, and process, nor do they provide materials that are presented in a manner considered or expected in the prior art. In fact, the concepts and physical transformations disclosed in this device, method, and process have never been successfully proven in any prior art. Therefore, apart from using known electric components that do not provide similar or even remotely related predictable results, related prior art references are not included in this specification.

DC motors, especially DC motors with ferromagnetic elements, have been found to use the input of resonant vibrational energy to generate electric energy to run the motor. Vibration energy acts on the motor and provides electrical and mechanical output. In addition, the resonance power of the motor not only provides the mechanical output of the motor, but also generates a kind of supplementary electric energy that can be circulated through the motor and used by an external electrical load. The vibration energy delivered to the DC motor is measured with a very high AC voltage, and its frequency is in the KHz range.

Diodes (rectifying AC power to DC power), inductor coils (an electric component including a ferromagnetic core and a section of wire around it), capacitors (an electric device with two conductive board surfaces for storing on this board) Charge, the conductive plate is separated by a dielectric insulator) and other system components are used to convert, control and regulate high frequency AC power generated by the resonant vibration of the generator / motor to DC power to run the generator / motor It also supplies power to external loads.

The device discloses the rectification of a high-voltage AC output with a frequency of KHz on a DC generator / motor through the vibration energy of the generator / motor itself. Vibration energy can be sent directly to the generator / motor or connected to the generator / motor by connecting sensors or other vibration energy. The generator / motor can be placed on the fixture, or it can be connected to the fixture in a way not previously foreseen by the new model or hereby found before the new model. The transition potential is abnormally enhanced with other previously unknown methods. Electrical vibration energy is demonstrated and disclosed (or other means of vibration energy) through the use of a tuned resonance sensor that matches the resonance frequency of the generator / motor housing. Secondary electrical components can be used to rectify, enhance, control, and regulate the power output and vibration amplitude input of a system with predictable results. If the wrong electrical values are used for some components, the result will be reduced system output efficiency or completely disabled functions. However, using the same components within the optimal feature range will exponentially increase the efficiency of previously unknown and unproven electrokinetic generation methods and processes.

10‧‧‧ Battery

12‧‧‧Drive board

14‧‧‧Sensor

14a‧‧‧Sensor

14b‧‧‧Sensor

16‧‧‧ Tuned inductor

20‧‧‧Generator / Motor

22‧‧‧ conductive surface

24a‧‧‧Diode

24b‧‧‧Diode

26a‧‧‧Capacitor

26b‧‧‧Capacitor

28‧‧‧ connection point

30‧‧‧Motor

32‧‧‧full wave bridge rectifier

36‧‧‧ Armature

38a‧‧‧ Commutator

38b‧‧‧ Commutator

40a‧‧‧Diode

40b‧‧‧Diode

42a‧‧‧Diode

42b‧‧‧Diode

44‧‧‧Balance transformer

46a‧‧‧circuit

46b‧‧‧circuit

48a‧‧‧circuit

48b‧‧‧circuit

50‧‧‧Double / DC Motor

52‧‧‧ Electric circuit

54‧‧‧Capacitor

56‧‧‧Capacitor

The following drawings are informal drawings filed with the provisional patent application. Figure 1 is a schematic diagram of a 100 watt @ 40KHz drive board for an ultrasonic sensor used in this test system. FIG. 2 is a first embodiment of a circuit diagram involving an electronic amplification system through resonance. FIG. 3 is a second embodiment of a circuit diagram involving an electronic amplification system through resonance. Figure 4 is an electron magnification involving resonance A third embodiment of the circuit diagram of the system. FIG. 5 is a diagram showing a DC motor generator / motor located on an upper surface of an elevated vibration support platform, wherein a lower surface of the elevated vibration support platform is connected to a sensor that causes a controlled electromechanical vibration force to the The raised vibration support platform shown in 2-4. 6 is a schematic diagram of a dual-winding / dual-commutator armature of a permanent magnet DC generator / motor. 7 is a schematic diagram of a dual-winding generator / motor that receives power from a circuit board and a battery and returns power to the battery and the circuit board. FIG. 8 is a view of a sensor pair, the piezoelectric elements of the sensor pair being arranged opposite to each other to produce a push / pull configuration for the present invention. Figure 9 shows the connection of the connection of the ultrasonic device to the opposite end of the generator / motor.

A. General equipment

Several of the tested equipment operated using the basic concepts of this equipment. This equipment generates current and voltage from the electromechanical vibration of the motor generator / motor, as shown in Figure 2-5. Three separate demonstrable systems are shown in each of the three circuit diagrams identified in Figures 2-4. The initial operating element includes an elevated platform that defines an upper surface, a lower surface, and raised legs to support the elevated platform above an operating area. A ferromagnetic motor generator identified in FIG. 5 is provided on the upper surface. motor.

The sensor is typically provided by fixing it to the lower surface of the platform in a suitable manner, preferably, centered under the base of the ferromagnetic motor-DC generator / motor that generates voltage and current. In the experiment, the mature technology disclosed below was provided. The tested sensor was determined to be a 40KHz @ 100-watt piezoelectric horn, which was powered by a 40KHZ @ 100-watt circuit board and matched power supply, which are usually shown in Figure 1-4. The sensor is further determined to include an upper block, a lower block, and two piezoelectric element electrodes, which are sandwiched between the upper and lower ceramic insulators of the piezoelectric element, and the positive electrode is generally connected to the piezoelectric element. The upper part, directly above the ceramic insulator, Use positive and negative electrodes for one step connection to a circuit board operated by a power source such as a battery or capacitor, or otherwise. Diodes that include a diode bridge are considered ultrafast diodes rated at high voltages.

The symbols in Figure 2-4 are from the well-known electric symbols, the difference is that the power supply and the drive board are identified by "P / DB", which means the power supply and the drive board. Most commonly, the power supply provides alternating current and voltage to the sensor, which forces the sensor to generate high frequency vibrations or resonances within a known and controlled range suitable for the required performance of the operating system. It is contemplated that other sensors or resonance-generating appliances may be used. The driving board is defined as a predetermined power and frequency driving board. The predetermined power and frequency driving board includes common electric components, which include diodes, resistors, capacitors, transistors, inductors, and transformers.

The general characteristics of the best sensors include high performance, high mechanical Q, high conversion efficiency, and large amplitude. Piezoelectric elements are composed of ceramic materials and have good heat resistance (ie, 100 watts @ 40KHz). It is also recommended to use stainless steel, Bell metal or aluminum for the upper and lower block materials and electrodes. The above-mentioned elements usually have a compression bolt to hold the elements together as a unit, and an insulator is located between the compression bolt, the electrode, and the piezoelectric element stacked on each other. An upper surface of the upper block is usually connected to the lower surface of the disclosed elevated platform. The upper surface of the elevated platform transmits the transferred (high voltage) high-frequency sound waves generated by the sensor through the lower surface. When the sensor starts to rotate, the resulting high-voltage vibration transfers energy to cause the ferromagnetic motor generator / motor to generate AC voltage, which is rectified by the diode to cause the generator / motor shaft to rotate, as shown in Figure 2-4 and 7 is shown. A ferromagnetic motor generator / motor is then used to provide mechanical power, current, and voltage from a circuit connection point from the diode array connected to the generator / motor terminal to the piezo disc between the sensor terminals. Supplementary continuous operation. The wire including the optional inductor must be connected in a circuit from one of the diodes connected to the generator terminal to the insulated terminal between the sensor's piezo discs for the system to work. If an incorrect motorized inductor coil is used, nothing will happen or the output efficiency will be greatly reduced. As the experimental data of this application is shown in the example section of this application, the system can operate without an inductor coil. therefore, Some experiments will be needed to match and include or exclude the appropriate electric inductor coils to use the correct and optimal vibration output of the sensor to optimize the power generation and movement of the ferromagnetic generator / motor. This can be done by using a signal generator connected to the sensor, and using a visual or metrological monitoring system (such as an oscilloscope) to tune to the appropriate electric frequency.

Therefore, the circuit diagram will show this connection as an insulated terminal connected to the sensor in Figure 2-4. The capacitors used in Figure 3-4 are electrolytic capacitors that are rated for high voltage and relatively low microfarads (400 volts @ 390uF, etc.), although other capacitors with various voltages and storage ratings can be used depending on the application.

In addition, a driving board using the schematic example shown in FIG. 1 is used, which has the following basic elements: a battery, which can be a high-voltage battery array or a capacitor array configured in series / parallel, to provide power to a circuit board; a transformer A motorized inductor coil; and a transistor that is driven by a toroidal transformer to provide harmonic power to generate resonance in the sensor, thereby providing vibration to the platform and further transmitting a specific optimal frequency to the Motor housing.

B. Description of various embodiments

General Example-Circuit Board Overview

Figure 1 shows a preferred embodiment of a schematic circuit board that drives an ultrasonic sensor, as shown in Figures 1-9 below.

First embodiment-single commutator generator with single sensor

Figure 2 is identified as a first embodiment of a device that generates current and voltage through vibration of a motor generator / motor, as described in the general section above. The device utilizes a single ferromagnetic electric permanent magnet DC generator / motor, which generates current and voltage through a plurality of diodes, and the plurality of diodes transmit the current and voltage through the diode bridge in the manner shown in the figure. Between the diodes including the diode bridge is a wire that directs voltage back to the center electrode in the sensor to provide a power circuit between the generator / motor winding and the sensor. First embodiment of the ferromagnetic generator / The voltage generated by the motor is only generated by the electromechanical vibration force of the platform, and causes the generator / motor shaft to rotate in the ferromagnetic motor generator / motor, thereby generating mechanical force and current at the same time under high voltage. The high voltage Much higher than the input voltage into the sensor.

Second embodiment-dual motor / diode

Figure 3 is identified as a second embodiment of a device that generates current and voltage through electromechanical vibration of a permanent magnet DC motor generator / motor, as described in the general section above. The device uses two or more permanent magnet DC generators / motors to generate current and voltage through a series of diodes, which transmit current through a diode bridge as shown. A pair of electrolytic capacitors were also used in the center of the diode bridge-before and after the cross-wire connection, the electrodes were returned to the sensor through a circuit, which again provided the sensor with supplementary electric voltage. The first ferromagnetic generator / motor again generates a high voltage output, which is generated only by the electro-acoustic vibration force of the platform, and also causes the motor shaft of the first ferromagnetic motor generator / motor to rotate. The power is rectified to DC power to provide power to the external electric load, so that the mechanical force and current at the same time under high voltage are much higher than the output voltage from the sensor. The output of power to the second ferromagnetic motor from the first ferromagnetic generator / motor causes rotation of the motor shaft. The operating voltage of the second ferromagnetic motor is directly related to the power. The voltage applied to the capacitor from the resonance voltage generated by the first ferromagnetic generator / motor is transmitted to the capacitor through the diode. It was further observed that applying a load on the rotating motor shaft of the second ferromagnetic motor would increase the rotation speed of the first ferromagnetic motor generator / motor and limit the rotation of the second ferromagnetic motor shaft. The voltage generated by the motor / motor seems to be reflected back to itself. So far, power enhancement is not measurable, and there appears to be no limiting potential when scaled up. This second embodiment can be used to operate one or more devices that require a rotating shaft for mechanical power, and can also be used to operate devices that require a charge voltage electric output, including fuel cells, hydrogen batteries, and other devices. It is envisaged that, in addition to the two motors shown, multiple motors may operate within the system.

Third Embodiment-Dual Motor / Bridge Rectifier

Figure 4 is identified as a third embodiment of a device that generates current and voltage through vibration of a motor generator / motor, as described in the general section above. The device uses two or more ferromagnetic electric motors to generate current and voltage through a full-wave bridge rectifier that transmits current through the full-wave bridge rectifier in the manner shown. A pair of electrolytic capacitors are also used in the electric wire bridge. As shown in the figure, the two current lines are further toward the second ferromagnetic electric motor. There is a double electrolytic capacitor in the middle of the electric wire bridge-one electrolytic capacitor before one electric wire. An electrolytic capacitor is then connected to the electrode of the sensor through a circuit after being connected by a wire, again supplying supplementary electric power from the sensor. The first ferromagnetic generator / motor generates high voltage, which is generated only by the electro-acoustic vibration force of the platform but does not cause the motor shaft of the first ferromagnetic electric motor to rotate, and generates current only at high voltage-this high voltage is much higher than Input voltage into the sensor. The power to the second ferromagnetic motor further generates output power and rotation of the motor shaft may provide mechanical rotational force to operate a mechanical device or appliance.

The third embodiment in FIG. 4 is a solid-state system that uses a full-wave bridge rectifier to cross the terminal of the first ferromagnetic electric motor (generator / motor) instead of a string of diodes separated from the positive and negative electrodes of the second embodiment. Given the fact that the generator / motor will rotate in a predetermined direction based on the direction of the presented diode array, if a full wave bridge rectifier is placed on the terminal, it will deliver 100% of the energy to the load, but it no longer behaves like Like a motor, rotation is caused by the force acting on it, and it is balanced by striking both sides of the waveform. This application will design a device with a resonant housing having a ferromagnetic field and a wire-wound core similar to an armature of an electric motor, but modified to generate a very effective high-voltage electromotive force through the electrical resonant vibration of the housing. The device provides a high-frequency AC voltage to a power DC circuit through a full-wave bridge rectifier.

Fourth Embodiment-Double Winding / Double Commutator Rotor

Figure 6 discloses a dual winding / dual commutator armature for a permanent magnet DC generator / motor. The winding of each commutator is electrically isolated from the opposite commutator, but they share the same magnetic field orientation through their respective electronic windings. Diode configuration of the opposite commutator terminal by using two The commutator and its diodes are configured on both sides of the rectified sine wave to use the power of the high-frequency AC voltage to support the constant power of the rotor rotation. The diode configuration shown in FIG. 6 discloses the necessary configuration for transferring power to a load to support constant power and rotation of the rotor shaft.

Fifth Embodiment-Dual commutator DC generator / motor power cycles to and from the power supply and circuit board.

Figure 7 shows an external schematic diagram of a dual commutator DC generator / motor. The schematic discloses a power loop circuit in which a dual commutator DC generator / motor receives electro-acoustic energy driven by a power source / drive board from a sensor, and how it returns power to the power source / drive board.

Sixth embodiment-two sensors with opposite polarities for parallel connection

FIG. 8 shows two substantially identical piezoelectric sensor assemblies shown in a standard structural form, each sensor including two piezoelectric disks, which are clamped by corresponding central bolts not shown in the corresponding Between the front and rear drives. It should be noted that the sides of the piezoelectric disc of FIG. 8 are opposite and flipped relative to each other, and the direction of each sensor is indicated by the positive and negative signs in FIG. 8. The sensor terminals are connected in parallel to a single circuit board and power supply. As a result, when the positive voltage is supplied to the positive electrode 14A and simultaneously to the negative electrode 14B, the clamping assembly of the positive electrode 14A will expand while the clamping assembly of the negative electrode 14B contracts. When the polarity of the voltage is reversed, the opposite situation will occur with the opposite sensor. Therefore, the sensor can be coupled to the opposite end of the permanent magnet DC generator / motor in order to drive the motor to its resonant state. The vibration of the motor sleeve and the armature will oscillate in phase in the same longitudinal direction, while the sensors vibrate 180 degrees out of phase with each other. This effect is commonly referred to as a push-pull configuration. When one sensor is in expansion mode, the other sensor is in contraction mode. This sensor device provides excellent electronic resonance power for the motor case and winding by connecting the sensor to each end of the motor case and the electronic winding.

FIG. 9 illustrates an alternative embodiment of the present invention, including a pair of ultrasonic sensors coupled to opposite ends of a permanent magnet DC generator / motor.

C. Performance and utility

Prior to the new model, early experiments have been performed on vibrating ferrite core inductors for many years. Experiments include using a DC power source, such as a battery, a DC generator, or a DC power source. The experiments included the use of high-speed transistors, powered by a marker generator, and square-wave pulses that provided DC power from milliliters to microhenries to many inductors of different values. When the transistor is turned on and off to deliver pulsed electric power to the coil, the pulse generates an AC square wave sign in the inductor. The resonance frequency of each coil can be determined by measuring the DC voltage of the two diodes on the wires across the inductor. When the peak voltage is measured from the collapse field of the inductor on the DC side of the diode, the system will be in a tuned resonance state. Each inductor value has a resonance frequency related to its value. The higher the inductor value, the lower its resonance frequency. The lower the inductor value, the higher its resonance frequency. It is observed that at the resonant frequency of the inductor coil, a very low DC voltage can be obtained by using a diode on the inductor through the input of a pulsed low DC voltage. Other observations indicate that adding a capacitor to collect the voltage from the diode will further significantly increase the measured voltage. The capacitor will charge to a higher voltage than the output voltage measured at the diode. It is believed that the resonant DC voltage auxiliary capacitor from the diode is charged to a higher DC voltage than the measured voltage from the diode. Multiple experiments were performed to collect data. In an experiment, a 1.5-volt AA battery was used as a power source, and a high-speed transistor was placed in the circuit to turn on and off at a predetermined frequency to provide pulsed voltage and current to the ferrite inductor coil. When the frequency is adjusted to the resonance of the coil, the voltage measured on the DC side of the diode will increase and reach a peak at the resonance of the coil. The voltage measured on the DC side of the diode is higher than 250 volts, and input power from 1.5 volts enters the inductor coil. When a 0.015mfd capacitor is connected to the DC side of the diode, the voltage measured from the resonance coil exceeds 500 volts. This application conducted another experiment in which a DC power source was used as a power source, and pulses were transmitted through a transistor to a 30 mH inductor at a predetermined frequency and voltage. This application uses a diode connected to an inductor to charge a 390mfd-400 volt electrolytic capacitor, which is connected to run a 180 volt DC generator / motor. Comparing other inductor core materials with iron (such as high frequency ferrite materials), we obtain Performance value. It is also contemplated that other reinforcing materials having high mechanical resonance properties may be added to future embodiments of the present invention without departing from the spirit and scope of the present invention.

D. Other tests and examples

The application of the device that generates current and voltage by vibration of an electric motor is as follows. First, the present application is able to generate electric energy from a motor generator / motor without rotating the motor shaft directly with a direct electric input or any mechanical force, rather than through the motor vibration on the platform or other ways to provide the motor resonance vibration. Second, the present application is capable of generating mechanical force and electric energy, where the electric energy output is actually transferred when a mechanical load is applied to the motor. Thirdly, the present application can mainly include passive electric components to regulate predictable electric energy and mechanical energy output and return sufficient energy to the system to reduce the energy required for continuous operation of the system to near a minimum value. Fourth, this application can create a useful power source for operating multiple devices that require extremely high voltages at low currents with minimal input energy. Other useful benefits can be achieved using the basic physical and mechanical meanings discovered within the scope of the operating system and related subject matter of the present disclosure, which were previously unknown and not discovered until the present disclosure.

Other examples of this unique form of vibrational energy will be disclosed in the chart below, showing the application's testing of four similar but different DC motors. The three test motors of the present application are 1.5 HP DC motors, but their rated voltages are different, and their rated voltages are 90 volts, 180 volts, and 450 volts. The motors have the same stator housing and outer dimensions because they are from the same manufacturer. The fourth motor of the present application is a 180 volt DC motor; however, its rated horsepower is only 0.33 HP.

Two sets of tests were performed in this application, and each test was tested in two parts. The first part of each test used an inductor in the circuit, and the second part removed the inductor from the circuit. This application uses an AC power meter to measure power extraction from an AC power source.

The first test measures the output voltage from each tested motor to a 5KV electrostatic voltmeter and is connected to its terminal with a 6,000 volt@0.015Mf capacitor. A string of high voltage diodes from The positive and negative poles of the motor are connected to the voltmeter, and the wires running from the negative pole of the voltmeter go back to the sensor terminal located between the piezoelectric discs of the sensor horn.

The second test ran a series of diodes connecting the positive and negative poles of the motor, as shown in the schematic diagram of Figure 2. The test in this application is performed using the inductor shown in the figure and the inductor removed from the circuit. The test results are shown in the following table.

The preceding Table 1 shows that the resonance voltages measured between the various motor sizes and their voltage ratings are relatively the same. The voltage reading of a 0.33HP motor with a rated voltage of 180 volts is higher than the rated voltage of a 180HP 1.5HP motor. The test of this application causes the display voltage to increase as the symbol amplitude of the sensor increases, and as the mass and size of the ferrite armature in the electronic resonance circuit of the sensor increase.

Although various embodiments of the invention have been described and illustrated above, those skilled in the art will understand that many modifications can be made therein without departing from the scope of the invention described herein.

E. Specific embodiments and drawings

FIG. 1 is a schematic diagram of a 100 watt @ 40KHz driver board 12 used in the preliminary test of the present application. A power source, such as a battery 10, is used to power the drive board 12. The driving board 12 is composed of common electric components, such as a diode, a resistor, a capacitor, a transistor, an inductor, and a transformer, as shown in the schematic diagram. The output of the drive board 12 is connected to a sensor 14, which transfers electromechanical energy to the work piece.

FIG. 2 is a schematic diagram of a generator / motor drive configuration, a perspective view of the sensor 14 is shown in the drawing. The driving board 12 is shown to be powered by the battery 10. The symbols + and-of the driving board 12 represent the connection points between the driving board 12 and the sensor 14. The horn of the sensor 14 is fixed on the underside of the conductive surface 22, defining an electro-acoustic plate to conduct electromechanical energy directly to a single generator / motor 20, as shown in the figure, remaining on top of the conductive surface 22. The driving board 12 exposes a negative (-) output side, which is connected to a connection point of a piezoelectric element of the sensor 14. An electric circuit travels from the connection point of the piezoelectric element of the sensor 14 through the tuning inductor 16 to the connection point 28 between the two diodes 24a and 24b. The diode 24 a is connected to the positive pole of the generator / motor 20, and the diode 24 b is connected to the negative pole of the generator / motor 20, forming a closed circuit between the terminals of the generator / motor 20. When the sensor 14 is turned on, the generator / motor 20 operates on its own in this configuration. The direction of motor rotation is determined by the direction of the diode connected to the positive and negative terminals of the motor. If the direction of the diode configuration is reversed between the positive and negative poles of the motor, the shaft rotation will be reversed relative to facing the brush assembly.

FIG. 3 is a schematic diagram of a dual generator / motor driver configuration, in which a perspective view of the sensor 14 is shown. The driving board 12 is shown to be powered by the battery 10. The symbols + and-of the driving board 12 represent the connection points between the driving board 12 and the sensor 14. The horn of the sensor 14 is fixed on the base of the conductive surface 22, which conducts electromechanical energy directly to the generator / motor 20, as shown in the figure. The driving board 12 exposes a negative (-) output side, which is connected to a connection point of a piezoelectric element of the sensor 14. An electric circuit running from the connection point of the piezoelectric element of the sensor 14 passes through the tuning inductor 16 to a series connection point 28 between the two capacitors 26a and 26b. The negative terminal of the capacitor 26a is connected to the diode 24a of the generator / motor 20 facing the positive terminal of the driver. The positive terminal of the capacitor 26b is connected to a diode 24b facing away from the negative terminal of the generator / motor 20. The positive electrode of the motor 30 is connected to the positive electrode of the capacitor 26b, and the negative electrode of the motor 30 is connected to the negative electrode of the capacitor 26a. When the sensor 14 sends electromechanical energy to the generator / motor 20 through the chassis 22, a high voltage alternating current is generated and rectified to pass through the diodes 24a and 24b to charge the capacitors 26a and 26b. As the generator / motor 20 experiences the electric load of the charging capacitors 26a and 26b, it starts to rotate like a motor. As the voltage on the capacitors 26a and 26b increases, the motor 30 starts to rotate by the power received by the capacitors 26a and 26b. It should be noted that if a mechanical load is applied to the drive shaft of the motor 30, the increased electric load of the generator / motor 20 will cause the rotational speed of the generator / motor 20 to increase the speed of the drive shaft.

FIG. 4 is a schematic diagram of a dual generator / motor driver configuration, which is similar to the schematic diagram shown in FIG. 3, in which a perspective view of the sensor 14 is shown. The driving board 12 is shown to be powered by the battery 10. The symbols + and-of the driving board 12 represent the connection points between the driving board 12 and the sensor 14. The horn of the sensor 14 is fixed on the base of the conductive surface 22, which conducts electromechanical energy directly to the generator / motor 20, as shown in the figure. The driving board 12 exposes a negative (-) output side, which is connected to a connection point of a piezoelectric element of the sensor 14. An electric circuit running from the connection point of the piezoelectric element of the sensor 14 passes through the tuning inductor 16 to a series connection point 28 between the two capacitors 26a and 26b. The negative electrode of the capacitor 26 a is connected to the negative side of the full-wave bridge rectifier 32, which is connected to receive the high-frequency AC output of the generator / motor 20. The positive electrode of the capacitor 26 b is connected to the positive side of the full-wave bridge rectifier 32, which is connected to receive the high-frequency AC output of the generator / motor 20. The positive electrode of the motor 30 is connected to the positive electrode of the capacitor 26b, and the negative electrode of the motor 30 is connected to the negative electrode of the capacitor 26a. When the sensor 14 sends electromechanical energy to the generator / motor 20 through the chassis 22, a high voltage AC current is generated and rectified to pass through the full wave bridge The rectifier 32 charges the capacitors 26a and 26b. As the voltage on the capacitors 26a and 26b increases, the motor 30 starts to rotate by the power received by the capacitors 26a and 26b. The use of a full-wave bridge rectifier 32 prevents the generator / motor 20 from rotating.

FIG. 5 is a perspective view of a generator / motor 20 mounted on top of the conductive plate 12. When the sensor 14 moves, the sensor 14 is bolted to the conductive plate 12 to transfer the machine power to the generator / motor 20.

Figure 6 discloses a dual winding armature 36 with two commutators 38a and 38b. The windings of the commutators 38a and 38b are electrically isolated from each other. The commutator 38a is provided with two diodes 40a and 42a. The diode 40a faces the positive pole of the commutator 38a, and the diode 42a faces away from the negative pole of the commutator 38a. The commutator 38b is provided with two diodes 40b and 42b, the diode 40b faces the negative pole of the commutator 38b, and the diode 42b faces away from the positive pole of the commutator 38b. The diodes 40 a and 40 b are connected in parallel to the negative electrode of the battery 10, and the diodes 42 a and 42 b are connected in parallel to the positive electrode of the electrode 10. When the generator / motor receiver containing the electrical energy of the armature 36 is included, the armature will rotate in a counterclockwise direction when facing the commutator 38a and clockwise when facing the commutator 38b. The advantage of using the dual commutator armature 36 is that both sides of the resonance waveform will be used to generate a constant torque on the armature 36 while providing more energy to charge the battery 10 when powering the battery panel 12.

FIG. 7 discloses an external schematic diagram of the power circuit exposure provided in FIG. 6. The battery 10 provides power to the driving board 12, which sends the output voltage to the sensor 14, and the sensor 14 is fixed on the conductive surface 22. When the sensor 14 is energized and running, electro-acoustic energy is transferred from the horn of the sensor 14 through the conductive surface 22 to a dual winding / dual commutator generator / motor (dual / DC motor) 50. The diodes 40a and 40b are connected to and face away from the negative electrode of the battery 10, which are connected to the corresponding commutator and its terminals described in FIG. The diodes 42a and 42b are connected to and face the positive electrode of the battery 10, which are connected to the corresponding commutators and their terminals described in FIG. An electric circuit 52 is provided for transmitting electromechanical resonance energy between a connection point of a piezoelectric element of the sensor 14 and a connection point between two capacitors (C1) 54 and (C2) 56 connected in series. The external terminal of capacitor (C1) 54 is connected to the The positive terminal of the cell 10 and the external terminal of the capacitor (C2) 56 are connected to the negative terminal of the battery 10. The electromechanical resonance energy transmitted from the connection point of the piezoelectric element of the sensor 14 to the series connection point between the two capacitors (C1) 54 and (C2) 56 transmits the electromechanical energy to the armature winding of the dual / DC motor 50. When the dual / DC motor 50 receives electro-acoustic energy from the horn of the sensor 14 and receives electrical energy from the connection point of the piezoelectric element of the sensor 14 to the armature winding, it will charge the battery 10 which provides power to the drive board 12 Power, the drive board 12 powers the sensor 14. The energy circuit seen in FIG. 7 discloses that the battery 10 and the drive plate 12 seen at the bottom of the schematic are the same battery 10 and drive plate 12 seen at the top of the schematic. The dual / DC generator / motor 50 will spin without being connected to its prime mover while it is charging the battery 10. The overall system efficiency is determined by many factors, including the resonant frequency of the sensor 14, the sign amplitude and output rating of the circuit board 12, and the size and size of the aspect ratio of the dual / DC motor 50.

Figure 8 discloses a pair of sensors 14a and 14b. The sensor 14a has a pair of piezoelectric elements with their negative electrodes facing each other and their positive electrodes facing outwards toward the front horn and the rear base. The sensor 14b has a pair of piezoelectric elements, with the positive electrodes facing each other, and the negative electrodes facing outward toward the front horn and the rear base. The sensors 14a and 14b are paired and connected in parallel with each other, with an electrically suitable AC power source being used in a push-pull configuration to form an electromechanical circuit.

FIG. 9 discloses a detailed schematic and perspective view of the brief disclosure provided in FIG. 8, with sensors 14 a and 14 b fixed to opposite ends of a permanent magnet dual / DC motor 50. The contact points between the sensors 14a and 14b and the dual / DC motor 50 are conductive. The circuit board 12 provides suitable AC current sources for the sensors 14a and 14b, which are connected to the AC power output of the circuit board 12 in a parallel circuit configuration. The circuit 48a is connected to the horn of the sensor 14a, the circuit 48b is connected to the horn of the sensor 14b, and they share the same electric output terminal of the circuit board 12. The circuit 46 a is connected to the connection point of the piezoelectric element of the sensor 14 a, and the circuit 46 b is connected to the connection point of the piezoelectric element of the sensor 14 b. Both share the same electric output terminal of the circuit board 12. A balancing transformer (balancer) 44 is connected in series in the electric circuit to the output terminal of the circuit board 12, and a parallel circuit to the sensors 14a and 14b. pass The sensors 14a and 14b are arranged to operate mechanically 180 degrees out of phase with each other. When the sensor 14a is in its longitudinal expansion phase, the sensor 14b is in its longitudinal contraction phase, and vice versa. When the sensors 14a and 14b are operating and their resonance frequency matches the resonance frequency of the generator / motor 50, an amplification of the parallel path of the electromechanical resonance along the armature axis of the generator / motor 50 is obtained. In this way, the matched resonance frequency of the sensors 14a and 14b and the resonance frequency of the generator / motor 50 provide an extremely efficient electric power system.

Claims (8)

An electronic amplification system through resonance includes: a battery connected to a driving board, the driving board providing power to a sensor, the sensor being connected below a conductive surface, the conductive surface being conducted by the sensor and by the sensor Electromechanical energy generated by a vibration of a conductive surface; a first generator that is placed on the conductive surface at a tuned frequency, causing the first generator to operate by the vibration, converting from The electromechanical energy source of the vibration is the operation of the first generator, and the current and voltage generated at the start of the operation of the sensor are a positive electrode and a negative electrode of the first generator; a plurality of diodes, The diodes form a diode bridge, and each diode is respectively connected to the positive electrode and the negative electrode, and the positive electrode and the negative electrode are connected to a circuit wiring between the positive electrode and the negative electrode of the first generator, and the plurality of diodes Additional circuit wiring between the two points defines a connection point; and a tuning inductor between the connection point, the sensor, and the drive board In the circuit wiring, the vibration generates the current and voltage from the first generator via the diode, and returns the current and voltage to the sensor and the drive board to maintain the operation of the device and Thus, the operation of the device is maintained after the start of the operation of the device. The system according to item 1 of the scope of patent application, further comprising: the plurality of diodes extending additional circuit wiring to one or more second generators, the second generators generating additional current and voltage, and each of the second generators The generator is defined as a ferromagnetic electric permanent magnet DC generator; each of the diodes and the one or more second generators are connected to a circuit wiring, the circuit wiring includes a first capacitor and a second capacitor, and A negative electrode of the first capacitor is connected to a diode facing the positive electrode of the first generator, and a positive electrode of the second capacitor is connected to a diode facing away from the negative electrode of the first generator. A diode defining the connection point by the circuit wiring between the first capacitor and the second capacitor; and a tuning inductor between the connection point, the sensor, and the driving board In the circuit wiring, the vibration generates the current and voltage from the first generator to the second generator via the diode, the first and second capacitors to generate a current amount. The external current and voltage also return the current and voltage to the sensor and the drive board to maintain the operation of the device and thereby maintain the operation of the device after the start of the operation of the device. The system according to item 1 of the scope of patent application, further comprising: the positive and negative electrodes of the first generator are connected to a full-wave bridge rectifier by an electric circuit; a first capacitor defines a negative electrode, and the negative electrode is connected To a negative side of the full-wave bridge rectifier, which is further connected to a negative side of at least a second generator, a second capacitor defines a positive electrode, and the positive electrode is connected to the full-wave bridge type by an electric circuit A positive side of a rectifier, the full-wave bridge rectifier is further connected to a positive side of the at least one second generator, and the first and second capacitors can receive a high-frequency AC output of the first generator An electric circuit between the first and second capacitors, defining a connection point, the connection point extending an electric circuit, the electric circuit including a tuned inductor that transmits current and voltage back To the sensor and the circuit board; and the negative side of the first capacitor is connected to the negative side of the at least one second generator, with the positive side of the first capacitor facing The connection point, the positive side of the second capacitor is connected to the negative electrode of the at least one second generator, and the negative side of the second capacitor faces the connection point, wherein the vibration generates the Current and voltage come from the first generator, pass through the full-wave bridge rectifier and the first and second capacitors to the at least one second generator to generate additional current and voltage, and also return to the Current and voltage are applied to the sensor and the driving board to maintain the operation of the device, and to maintain the operation of the device after the operation of the device is started. An electronic amplification system through resonance includes: a battery defining a positive electrode and a negative electrode, which are connected to a driving board, the driving board provides power to a sensor, the sensor is connected below a conductive surface, and the conductive surface Conduction utilizes the electromechanical energy generated by the vibration of the conductive surface of the sensor; a generator that defines a double winding and a double commutator, and the generator is placed on the conductive surface at a tuned frequency Causing the generator to be operated by the vibration, converting the electromechanical energy source from the vibration to the operation of the generator, and generating the current and voltage to the positive electrode of the generator at the beginning of the operation of the sensor And a negative electrode; a plurality of diodes are connected to the negative electrode facing away from the battery by an electric circuit, and are connected to a commutator terminal on a first and a second commutator, and further connected to a first by an ordinary electric circuit An external terminal of a capacitor; a plurality of diodes are connected to the positive electrode of the battery by an electric circuit and are connected to the commutator terminals at the first and the first The commutator is further connected to an external terminal of a second capacitor by a common electric circuit, and the first and second capacitors are connected to each other at a common connection point; and a circuit wiring is arranged between the connection points. The sensor is between the driving board, wherein the vibration generates the current and voltage from the generator, passes the diode, returns the current and voltage to the sensor and the driving board, and Maintaining the operation of the device so as to maintain the operation of the device after the start of the operation of the device, and further wherein the dual winding armature of the generator receives electrical energy, and the dual winding armature faces The first commutator rotates counterclockwise when facing the second commutator, and rotates clockwise when facing the second commutator, providing the advantage of using both sides of a resonant waveform to produce a constant on the dual winding armature Of torque while providing more energy to charge the battery and power the circuit board. An electronic amplification system through resonance includes: a battery connected to a driving board, the driving board providing power to a sensor, the sensor being connected below a conductive surface, the conductive surface being conducted by the sensor and by the sensor Electromechanical energy generated by a vibration of a conductive surface; a first motor that is placed on the conductive surface at a tuned frequency, causing the first motor to run by the vibration and to convert from the vibration The electromechanical energy source is the operation of the first motor, and the current and voltage generated at the beginning of the operation of the sensor are a positive electrode and a negative electrode of the first motor; a plurality of diodes, which form a A diode bridge, each diode being connected to the positive electrode and the negative electrode respectively, the positive electrode and the negative electrode being connected to a circuit wiring between the positive electrode and the negative electrode of the first motor, and defined by an additional circuit wiring between the plurality of diodes A connection point; and a tuning inductor in a circuit wiring between the connection point, the sensor, and the drive board Wherein the vibration generates the current and voltage from the first motor via the diode, and returns the current and voltage to the sensor and the driving board to maintain the operation of the device and thus maintain the The operation of the device after the start of the operation of the device. The system according to item 5 of the patent application scope, further comprising: the plurality of diodes extending additional circuit wiring to one or more second motors, the second motors generating additional current and voltage, and each of the second motors defining Is a ferromagnetic electric permanent magnet DC motor; each of the diodes and the one or more second motors are connected with a circuit wiring, the circuit wiring includes a first capacitor and a second capacitor, and the first capacitor A negative electrode of is connected to a diode facing the positive electrode of the first motor, and a positive electrode of the second capacitor is connected to a diode facing away from the negative electrode of the first motor. The circuit wiring between a capacitor and a second capacitor defines the connection point; and a tuning inductor in the circuit wiring between the connection point, the sensor, and the drive board, where The vibration generates the current and voltage from the first motor to the second motor via the diode, the first and second capacitors to generate additional current and voltage, and The current and voltage are also returned to the sensor and the drive board to maintain the operation of the device and thereby maintain the operation of the device after the start of the operation of the device. The system according to item 5 of the scope of patent application, further comprising: the positive electrode and the negative electrode of the first motor are connected to a full-wave bridge rectifier by an electric circuit; a first capacitor defines a negative electrode, and the negative electrode is connected to A negative side of the full-wave bridge rectifier is further connected to a negative side of at least a second motor. A second capacitor defines a positive electrode, and the positive electrode is connected to the full-wave bridge rectifier by an electric circuit. A positive side, the full-wave bridge rectifier is further connected to a positive side of the at least one second motor, and the first and second capacitors can receive a high-frequency AC output of the first generator / motor; An electric circuit is defined between the first and second capacitors and defines a connection point. The connection point extends an electric circuit. The electric circuit includes a tuned inductor that transmits current and voltage back to the circuit. The sensor and the circuit board; and the negative side of the first capacitor is connected to the negative electrode of the at least one second motor with the positive side of the first capacitor facing toward A connection point, the positive side of the second capacitor is connected to the negative electrode of the at least one second motor, with the negative side of the second capacitor facing the connection point, wherein the vibration generates the current and voltage From the first motor through the full-wave bridge rectifier and the first and second capacitors to the at least one second motor to generate additional current and voltage, and also return the current and voltage to all The sensor and the driving board are used to maintain the operation of the device, so as to maintain the operation of the device after the operation of the device is started. An electronic amplification system through resonance includes: a battery defining a positive electrode and a negative electrode, which are connected to a driving board, the driving board provides power to a sensor, the sensor is connected below a conductive surface, and the conductive surface The conduction uses the electromechanical energy generated by the vibration of the conductive surface of the sensor; a motor that defines a double winding and a double commutator, the motor is placed on the conductive surface at a tuned frequency and causes the The motor is operated by the vibration, and the electromechanical energy source from the vibration is converted to the operation of the motor, and the current and voltage are generated to the positive and negative electrodes of the first motor at the beginning of the operation of the sensor; A diode is connected to the negative electrode of the battery by an electric circuit, and is connected to a commutator terminal on a first and a second commutator, and further connected to the outside of a first capacitor by a common electric circuit Terminals; a plurality of diodes connected to the positive electrode of the battery by an electric circuit and connected to the commutator terminals at the first and second commutators And further connected to an external terminal of a second capacitor by a common electric circuit, and the first and second capacitors are connected to each other at a common connection point; and a circuit wiring is arranged between the connection point and the sensor Between the driving boards, wherein the vibration generates the current and voltage from the motor, passes the diode, and returns the current and voltage to the sensor and the driving board to maintain the equipment. Operating to maintain the operation of the device after the start of the operation of the device, and further wherein the dual winding armature of the motor receives electrical energy, and the dual winding armature faces the first commutation The rotor rotates counterclockwise when facing the second commutator, and rotates clockwise when facing the second commutator, providing the advantage of using both sides of a resonance waveform to generate constant torque on the dual winding armature, while providing more Large energy to charge the battery and power the circuit board.